Tank mit Wasserstandsanzeiger

Papier zum Verhindern von Unkraut für die Verwendung bei der Pflanzenzucht

Bewässerungsspitze

SELF-WATERING PLANTER

Moisture content indicator for plants

The amount of water that needs to be applied to a plant in a growing medium held in a container is established by determining an optimum total mass for the plant, growing medium, moisture and container, by standing the optimally-watered plant in its container on a base unit 11] of apparatus provided with a weight sensor [9] and a display means (2), displaying the optimum total mass, and optionally other relevant data. Reactivation of the apparatus from time to time will indicate loss of water through transpiration, providing an indication from the processing unit (6) as to whether additional water is needed, and how much water need be added. A temperature sensor (10) may be provided. The device may be battery or solar powered.

Containerised plant, soil moisture sensing apparatus

Containerised plant soil moisture sensing apparatus comprising a bladder 1 which in use contains fluid and is arranged at least partly to support a containerised plant, and a manometer 7 responsive to fluid pressure within the bladder for providing an indication of the moisture content of container soil in dependence upon the weight of the containerised plant supported.

A water treatment apparatus

A water treatment apparatus (2, Fig. 1) for treating stormwater comprises a volume of filter media 18, a baffle (30, Fig. 3) and an inlet conduit 12. The baffle extends upwards from the volume of filter media and defines a pre-treatment zone (42, Fig. 4) on one side of the baffle and a treatment zone (44, Fig. 4) on an opposing side of the baffle. The inlet conduit opens into the pre-treatment zone and is separated from the treatment zone by the baffle. The baffle is configured to regulate a flow of stormwater received via the inlet conduit by controlling the passage of stormwater from the pre-treatment zone to the treatment zone. Suitably, the inlet conduit is formed in a curb (10, Fig. 1) of a road. A frame 16 may be spaced upwards from the filter media, with the baffle disposed between the frame and the filter media. The frame can comprise a maintenance access hole (32, Fig. 3) with a removable cover. The removable cover may form a surface of a pavement. A tree (15, Fig. 1) may grow ...

Stackable modular planter

A stackable modular planter 1 has a vegetation receiving box 10 having a base 11 and four side walls 12, 13, 14, 15 to receive a growing medium and plants. The width of the irrigation bottom box 20 has a width larger than the top open box. The planter box has an open top hopper 30 on one side of the vegetation box on top of the irrigation box to receive irrigation fluid which drains into the irrigation box, an overflow drain aperture (60, figure 2) through which excess irrigation fluid can flow and means 50A, 50B to stack one planter above another planter. When a planter is stacked above another, excess irrigation fluid can flow from the overflow aperture into the hopper of the planter below. The width of the irrigation box may be equal to the combined width of the hopper and the vegetation box. The walls of the planter box may be tapered inwards. The stackable means 50A and 50B may be side frames.

Regulated capillary plant watering

A capillary wicking system for watering and/or nutrient feeding plants has a rising wick E isolated from a reservoir or supply by an enclosure J. Water is admitted to the enclosure via a control valve H in order to control the percentage field capacity of the growing media or to adjust the rate of flow. The wick is integral with or contacts a spreader mat B to deliver water to the growing media. The wick is preferably enclosed within a plastics bag sealed along three sides and open at an end at which the wick contacts or forms the spreader mat (see figure 2). Alternatively the enclosure may be a rigid enclosure (not shown). The control valve may be moveable vertically relative to the base of the growing media. The system may be a domestic or indoor system with the spreader mat B located on a table or bench A supporting planters D. Alternatively the system may be used in an outdoor setting with the rising wick disposed in a trench (see figure 3).

PLANT WATERING DEVICE

SELF-WATERING PLANTER

Bath level warning system

CONTAINER FOR HYDRAULIC CULTURE

EINSATZTOPF FUER EINEN HYDROKULTUR-AUSSENBEHAELTER

Flower pot

Blumentopf (1) aufweisend ein Innenelement (2) mit einem Mantel (4) , an welchem mehrere Flüssigkeitsdurchtrittsöffnungen (8) ausgebildet sind, - ein das Innenelement (2) umgebendes Außenelement (3) mit ei nem Boden (9) , einer vom Boden (9) abstehenden Seitenwand (10) und mit einem Flüssigkeitsvorratsraum (11) , wobei - die Seitenwand (10) des Außenelements (3) eine geringere Höhe als der Mantel (4) des Innenelements (2) aufweist und zwischen dem Innenelement (2) und dem Außenelement (3) zumindest eine Füll- und Sichtöffnung (12) zum Einfüllen von Flüssigkeit in den Flüssigkeitsvorratsraum (11) und zur Sichtkontrolle eines Pegels der Flüssigkeit in dem Flüssigkeitsvorratsraum (11) des Außenelements (3) ausgebildet ist , wobei - als Flüssigkeitsdurchtrittsöffnungen (8) des Innenelements eine erste Schar von Öffnungen (23) und eine zweite Schar von Öffnungen (24) vorgesehen sind, wobei die erste Schar von Öffnungen (23) eine größere Erstreckung in Längsrichtung des Innenelements (2) als ...

EMPLOYMENT POT FOR A HYDRAULIC CULTURAL EXTERNAL TANK

WATER LEVEL INDICATOR FOR A HYDRAULIC CULTURE

EMPLOYMENT POT FOR A HYDRAULIC CULTURAL OUTER EN CONTAINER

WASSERVERSORGUNGSSYSTEM FÜR PFLANZEN

Der Anmeldegegenstand "Wasserversorgungssystem für Pflanzen" besteht aus einer Kombination eines handelsüblichen Dochtsystems (Fig.1) mit einer, auf dem Prinzip der kommunizierenden Gefäße basierenden, externen Wasserstandsanzeige (f) und einem externen Wasserreservebehälter (Fig.3), der ein automatisches Nachfließen der benötigten Wassermenge sicherstellt.Zweck der Erfindung ist die optimale Versorgung von Pflanzen mit geringstmöglichem Zeitaufwand und ohne ständig an das "Gießen" denken zu müssen.

FLOWER POT WITH AUTOMATIC WATER SUPPLY AND ANNOUNCEMENT OF LACK OF WATER

CONTAINER FOR HYDRAULIC CULTURE

MULTI-BRANCH LIQUID DISTRIBUTOR FROM MODULES.

PFLANZENBEHÄLTER MIT INTEGRIERTER BEWÄSSERUNGSEINRICHTUNG

The plant container has a tank (2) of water which has a sealable channel (7) connecting it to a reservoir (8) in its base. This is separated by an absorbent layer of perforated panel from the main container (1), which is fitted with a water level indicator (3).

ZUBEHORTEIL TO A PFLANZGEFASS FUR HYDRAULIC CULTURE

Hydroponic growing unit

A hydroponic growing apparatus (100) may include a housing (110), a water reservoir (112), and a lighting system (108). The housing (110) may include a bottom surface and an open top surface. The apparatus (100) may also include a pump (166), the pump (166) comprising an inlet and an outlet, and a sprayer coupled to the outlet of the pump (166). Also, the apparatus (100) may include a support structure (114) configured to fit into an open top surface of the housing (110). The support structure (114) may define a plurality of openings (122). The apparatus (100) may include at least one cover plate (156) configured to fit over the support structure (114) in the open top surface of the housing (110).

Plant watering bottle

A plant watering bottle, comprising: a water storage container (1), an evaporation cover (2), a funnel (3), an indication rod (4), and a float (5). The evaporation cover is provided on the water storage container (1). The evaporation cover (2) is an air-permeable structure, and is upwardly connected to the funnel (3). The indication rod (4) is provided in the neck of the funnel (3). A bottom end of the indication rod (4) is connected to the float (5). The float (5) drives the indication rod (4) to indicate a water level in the water storage container (1). The method for use comprises: burying the water storage container (1) and the evaporation cover (2) in soil near a plant root; injecting water into the water storage container (1) via the funnel (3); and allowing the water in the water storage container (1) to naturally evaporate via the evaporation cover (2) to water the soil and to keep water in the soil to maintain the survival of the plant. The benefits thereof include low application ...

Peristaltic pumps in an assembly line grow pod and methods of providing fluids via peristaltic pumps

Devices, systems, and methods for providing a predetermined amount of fluid in an assembly line grow pod are provided. Some embodiments include an assembly line grow pod including a tray held by a cart supported on a track, the tray including at least one section. The assembly line grow pod further includes a fluid source and a watering station. The watering station includes a robot device having a movable arm and at least one peristaltic pump coupled to the arm, the peristaltic pump having an inlet and an outlet, the inlet fluidly coupled to the fluid source. A predetermined amount of fluid from the fluid source is delivered to the at least one section of the tray via movement of the movable arm of the robot device to align the outlet of the peristaltic pump with the at least one section and via ejection of the fluid from the outlet.

Flower pot with automatic water supply and water shortage display

Downpipe Assembly

H:\tld\Intrwovn\NRPortbl\DCC\TLD\I2422259_I.doc-21/12/2016 - 18 A vertical garden assembly for coupling to a downpipe of a building, including one or 5 more receptacles coupled, in spaced apart positions, along a direction of extent of said downpipe, wherein each one of said receptacles is shaped to at least partially wrap around the downpipe.

System and method for producing a plant

A system (100) for producing a plant (35), the system having an indoor environment, a plurality of plant holders (1) for growing and transporting a plant therein, a controller (105) for at least controlling temperature and humidity in the indoor environment. The plant holder has a semi-permeable foil (20) defining a non-planar boundary of an interior space and an exterior space, a reservoir (2), having an amount of liquid for feeding the plant. The reservoir (2) and the semi-permeable foil (20) are arranged to allow the plant to grow in the interior space. The semi-permeable foil (20) has permeation of water vapor.

PLANT CULTIVATION DEVICE

L'invention concerne un dispositif (1) de culture végétale. Le dispositif (1) comprend un récipient (2) présentant au moins une paroi périphérique (21) et une paroi de fond (22). La paroi de fond (22) présente au moins un trou (23) débouchant dans un tube d'irrigation (25), une région de la paroi de fond (22) autour du, ou de chaque, trou (23) comprenant des moyens de guidage adaptés pour guider des racines d'un végétal autour du trou (23) correspondant pour maintenir le tube d'irrigation (25) sensiblement dégagé. L'invention concerne également une cartouche comprenant un substrat, adaptée pour être positionnée dans ce récipient, la cartouche présentant une face inférieure comprenant au moins un relief adapté pour coopérer avec les moyens de guidage du récipient.

DEVICE FOR AIDING PLANT SURVIVAL

A device for aiding plant survival, comprising: a water storage container, an evaporation cover, a funnel, an indication rod, and a float. The evaporation cover is an air-permeable structure provided on the water storage container, upwardly connected to the funnel. The indication rod has a bottom end connected to the float, which drives the indication rod to indicate a water level in the water storage container. The method for use comprises: burying the water storage container and the evaporation cover in soil near a plant root; injecting water into the water storage container via the funnel; and allowing the water in the water storage container to evaporate via the evaporation cover, watering the soil, and maintaining water in the soil to maintain the survival of the plant. The benefits thereof include low application costs and suitability for use in droughts and water-resource-deficient areas.

ROTATABLE RACK SYSTEM

A rotatable rack system for growing plants is disclosed which has a frame, a plurality of mobile trays arrayed around the frame, where each mobile tray contains at least one plant and a chain linking said plurality of mobile trays together, supported by the frame with a drive mechanism configured to drive the chain wherein the frame is configured to support the plurality of mobile trays encircling an enclosed space. Several configurations of the frame that are equally energy efficient are also disclosed, along with a method of growing plants using the system.

Pflanzgefäss für Hydrokultur

Flüssigkeitsstandmesser für Pflanzgefässe für Hydrokultur

Automatic valve for liquids - has actuator of absorbent material shutting when swollen, useful for automatically watering plants

The valve is particularly for watering plants, and incorporates an actuator of water-absorbent material. In the dry and shrunken condition it opens the valve and in the wet and swollen condition shuts it. The actuator is so mounted that it is either directly or indirectly moistened by the water emerging from the valve. For indirect moistening, it is accommodated in a housing (5) buried in the earth surrounding the plant. Valve and actuator can be in one piece, and accommodated in a ventilated housing with inlet and outlet, the valve shutting off the inlet. The hydrophilic valve material may e.g. be a polyamide.

Pflanzgefäss für Hydrokultur

Pflanzen-Bewässerungs-Einrichtung

Insert pot with water-level indicator for a hydroponics outer receptacle

Water level gauge for a hydroponic culture

Water level measuring device for plant containers.

Eine Wasserstands-Messvorrichtung (8, 16; 30, 16) für Pflanzenkulturanordnungen mit einem Pflanzengefäss (1) zur Aufnahme von Pflanzsubstrat (2) umfasst im Wesentlichen ein Aufnahmemittel (8, 30) zur Aufnahme und/oder Führung eines Messmittels (16). Das Messmittel besteht dabei im Wesentlichen aus einem transparenten Rohr. Das Aufnahmemittel dient dazu, das Messmittel während des Absenkens seines einen Endes innerhalb oder ausserhalb des Pflanzengefässes (1) zuzuführen. Das Aufnahmemittel (8, 30) ist bevorzugt so angeordnet, dass das Messmittel (16) bis zu dem Boden des Teiles (6) der Pflanzenkulturanordnung absenkbar ist, das als Auffangbehälter für das Giesswasser dient. Der Wasserpegel (23) in der Pflanzenkulturanordnung (1, 5, 6) ist dadurch bestimmbar, dass das obere Ende des Messmittels (16) verschlossen und das Messmittel (16) herausgezogen wird, wonach die Höhe der Wassersäule im Messmittel ablesbar ist, die mit der Höhe des Wasserstandes in der Pflanzenkulturanordnung (1, 5, 6) ...

DEVICE FLOWER POT WITH EXTERNAL GORShKOM THE POT AND THE INSERT, WHICH CAN BE PLACED AND EXTRACTED FROM EXTERNAL POT

DEVICE FOR IMPROVING VIABILITY OF PLANTS

PROCEDE ET DISPOSITIF POUR DETECTER ET SIGNALER LES BESOINS D'ARROSAGE D'UNE PLANTE

DISPOSITIF POUR DETECTER ET SIGNALER LES BESOINS D'ARROSAGE D'UNE PLANTE, CARACTERISE EN CE QU'IL COMPREND UNE EMBASE INFERIEURE OU ANALOGUE 2 DESTINEE A REPOSER SUR UN SUPPORT 3; UN PLATEAU SUPERIEUR OU ANALOGUE 4 DESTINE A SUPPORTER LA PLANTE 5; DES MOYENS 6 ELASTIQUEMENT DEFORMABLES SOUS LE POIDS DE LA PLANTE, INTERPOSES ENTRE L'EMBASE 2 ET LE PLATEAU 4; ET DES MOYENS INDICATEURS 11 SENSIBLES A L'ETAT DE DEFORMATION DES MOYENS ELASTIQUEMENT DEFORMABLES ET A L'ECARTEMENT MUTUEL DU PLATEAU ET DE L'EMBASE POUR FOURNIR UNE INDICATION DES BESOINS D'ARROSAGE DE LA PLANTE.

MONITORING DEVICE FOR MAINTENANCE OF PLANTS AND CORRESPONDING SYSTEM

DEVICE FOR CULTIVATING PLANTS

Potted plant watering device, has humidity sensor allowing activation or deactivation of solenoid valve based on humidity of soil detected through probe, and allowing arrival of water in reservoir when soil is not humid

L' invention concerne un dispositif d'arrosage de plantes en pot à réserve d'eau par auto arrosage régulé par la plante elle-même en fonction de sa consommation d'eau. Il est constitué d'une électrovanne (8) qui permet le remplissage du réservoir d'eau (2) du pot (1) quand elle est activée par le commutateur à flotteur (4) en position niveau bas et si en même temps le détecteur d'humidité (10) n'est plus activé par la sonde (6) plantée dans la terre (11) sèche. Pour remplir la réserve d'eau (2) du pot (1) il est nécessaire et suffisant que le flotteur (4) soit au niveau bas et en même temps que la sonde (6) soit dans la terre (11) sans humidité ; ces deux positions simultanées permettent l'ouverture de l'électrovanne (8) et le remplissage de la réserve d'eau (2) .

DEVICE FOR THE WATER-CULTURE OF PLANTS

Electronic control of plant watering eqpt - conductivity measurements operate transistor lamp driver circuit for level control

WALL GREENING MODULE AND WALL GREENING SYSTEM INCLUDING THE SAME

WEED-PREVENTING PAPER CONTAINING CROSS-SHAPED INSERTION HOLE WHICH PLANT PASSES THROUGH

PURPOSE: A weed-preventing paper containing at least one cross-shaped insertion hole which a plant passes through is provided. The weed-preventing paper contains weed-preventing agent which has sun-light blocking effect. CONSTITUTION: The weed-preventing paper used for plant cultivation consists of: a paper body containing at least one cross-shaped insertion hole which a plant passes; a weed-preventing agent contained in the paper body to block sun-light, consequently to prevent the growth of weeds around the plant; and a water indicator containing a moisture content indicating agent to suggest time to water the plant. The moisture content indicating agent is cobalt chloride and is printed on the paper in the shape of letters or figures. The weed-preventing paper is an inorganic or organic filler selected from the group consisting of carbon black, silica dioxide and titanium dioxide. © KIPO 2005 ...

DEVICE FOR IRRIGATING CROPS IN CONTAINERS

Light source device, method of manufacturing light source device, and line head module

A light source device includes a light-emitting unit having a plurality of light-emitting elements, a first optical unit that substantially collimates beams emitted from the light-emitting elements in a first direction, and a second optical unit that condenses the emitted beams substantially collimated by the first optical unit in a second direction intersecting the first direction.

SYSTEMS, DEVICES, AND/OR METHODS FOR COVERING STRUCTURES

Certain exemplary embodiments can provide a system, machine, device, and/or manufacture adapted for and/or resulting from, and/or a method configured for, activities that can comprise and/or relate to, installing a support system for a green wall, the support system comprising a plurality of trays that are configured to interface with a securement system.

BOTTOM WATERING-TYPE PLANT CULTIVATION DEVICE

A bottom watering-type cultivation device which supplies water from a refillable water vessel (20) provided at a lower portion of a flowerpot (1) to a plant in the flowerpot (1). The bottom watering-type plant cultivation device includes a flowerpot (1) having a bottom part projected upward at a predetermined section thereof to a predetermined height to define a nutrient solution feed space (3) under the bottom part of the flowerpot (1), a refillable water vessel (20) to contain a predetermined amount of water therein to supply the water into the flowerpot, a nutrient solution guide (30) removably installed in the nutrient solution feed space (3) of the flowerpot (1), a water absorbing unit (24) engaging with the nutrient solution guide (30), and a root intercept unit (12) to prevent roots of the plant from infiltrating into the nutrient solution feed space (3).

Hydroculture growing system with improved light/water meter

A hydroponic planter includes an outer container and an inner liner. The liner includes a central inverted cup-shaped reservoir for a liquid nutrient solution. The outer wall of the liner includes slots extending substantially above the height of the reservoir, to provide aeration of the roots of plants growing in the planter. A combined light and liquid level indicator determines the minimum amount of light in which the planter can be placed, shows when to add nutrient solution to the planter, and indicates when too little, sufficient or too much nutrient solution has been added. The light/liquid level monitor includes three light-transmitting rods of different lengths extending between the outer container and the liner; one extends to the bottom of the liner, another to below the top of the reservoir, and the third to near the top of the reservoir. The rods have flat upper indicating surfaces and conical ends so that the indicating surface becomes dark in appearance when the conical end ...

Hydroculture growing system with improved light/water meter

A hydroponic planter includes an outer container and an inner liner. The liner includes a central inverted cup-shaped reservoir for a liquid nutrient solution. The outer wall of the liner includes slots extending substantially above the height of the reservoir, to provide aeration of the roots of plants growing in the planter. A combined light and liquid level indicator determines the minimum amount of light in which the planter can be placed, shows when to add nutrient solution to the planter, and indicates when too little, sufficient or too much nutrient solution has been added. The light/liquid level monitor includes three light-transmitting rods of different lengths extending between the outer container and the liner; one extends to the bottom of the liner, another to below the top of the reservoir, and the third to near the top of the reservoir. The rods have flat upper indicating surfaces and conical ends so that the indicating surface becomes dark in appearance when the conical end ...

ROBOTIC APPLICATORS IN AN ASSEMBLY LINE GROW POD AND METHODS OF PROVIDING FLUIDS AND SEEDS VIA ROBOTIC APPLICATORS

Assembly line grow pods, watering stations, and seeder components that include robotic applicators are disclosed. An assembly line grow pod includes a tray held by a cart supported on a track. The tray includes a plurality of sections. The assembly line grow pod further includes a watering component providing fluid and a robotic applicator including an articulating robot arm having one or more outlets that selectively dispense the fluid therefrom. The articulating robot arm is positioned to align the one or more outlets with a corresponding one or more of the plurality of sections such that the fluid is dispensable into each of the plurality of sections independently. 1. An assembly line grow pod comprising:a tray held by a cart supported on a track, the tray comprising a plurality of sections, the tray receiving plant material in at least one of the plurality of sections;a watering component for providing fluid to the tray and plant material; anda robotic applicator comprising an articulating robot arm having one or more outlets that selectively dispense the fluid therefrom, the articulating robot arm positioned relative to the tray to align the one or more outlets with one or more corresponding section of the plurality of sections such that the fluid is dispensable into each of the sections.2. The assembly line grow pod of claim 1 , further comprising a master controller communicatively coupled to the watering component and the robotic applicator claim 1 , the master controller transmitting signals to the watering component and the robotic applicator to control delivery of the fluid to the at least one section of the plurality of sections of the tray.3. The assembly line grow pod of claim 2 , further comprising at least one sensor communicatively coupled to the master controller claim 2 , the at least one sensor transmitting signals or data or both to the master controller for determining a location of the at least one section of the tray relative to the one of ...

Fluid Manifold

A fluid manifold for distributing a source of fluid is described, and which includes a valve body having a plurality of fluid outlets which are coupled in fluid receiving communication relative to an internal cavity, and which is defined by the valve body, and a selectively adjustable valve member is received within the internal cavity of the valve body, and is further operable to meter the source of fluid delivered into the internal cavity and which then escapes the valve body by way of the plurality of fluid outlets for distribution to a predetermined destination.

VERTICAL FARMING SYSTEMS AND METHODS

An automatic vertical farming system may include a frame defining at least one growth area and configured to support a plurality of vertical plant growth structures within the at least one growth area. The system may include at least one light, at least one liquid conduit, and at least one gas conduit. The system may include at least one robot disposed on a top side of the frame and movably supported by the frame. The at least one robot may include at least one tool configured to manipulate the plurality of vertical plant growth structures. The system may include a control system including at least one processor configured to automatically control illumination by the at least one light, liquid flow through the at least one liquid conduit, gas flow through the at least one gas conduit, and operation of the at least one robot.

ADAPTER FOR AN IRRIGATION AND VENTILATION DEVICE FOR WOODY PLANTS AND AN IRRIGATION AND VENTILATION DEVICE WITH THE ADAPTER

Der Adapter für eine Bewässerungs- und Belüftungsvorrichtung für Gehölze, wobei der Adapter ein Rohrstück (1) mit einem Anschluss-Düsenhalterteil (2) mit einem Durchflussmengenregler aufweist, ist dadurch gekennzeichnet, dass der Durchflussmengenregler (6) austauschbar ist und dass das Anschluss-Düsenhalterteil (2) eine Einbaurichtung aufweist, die - bezogen auf das lotrecht stehende Rohrstück (1) - tangential zum Rohrstück (1) und schräg nach unten geneigt ist.

CULTIVATION SYSTEM HAVING CULTIVATION BOX AND CONTROLLING METHOD THEREOF

ПЫЛЕСОС

Изобретение относится к пылесосу, имеющему пылеулавливающее устройство, установленное в нем с возможностью отсоединения. Пылесос содержит корпус, имеющий источник всасывающего усилия и сепаратор загрязнений, предназначенный для отделения частиц загрязнений от втягиваемого воздуха за счет всасывающего усилия, приемник загрязнений, расположенный под сепаратором загрязнений и установленный с возможностью отсоединения в корпусе пылесоса, запирающий узел, служащий для сцепления и расцепления сепаратора загрязнений и приемника загрязнений, и узел рукоятки, за который пользователь держит пылесос при переноске. Узел рукоятки выполнен так, что он препятствует разъединению сепаратора и приемника при их расцеплении в результате манипулирования запирающим узлом. Узел рукоятки содержит рукоятку, расположенную на корпусе пылесоса, рычаг, размещенный на сепараторе загрязнений и касающийся одной стороны рукоятки, соединитель для рычага, который расположен на корпусе пылесоса и с которым сцепляется и расцепляется ...

Pflanzgefaess fuer Hydrokultur

Plant pot holder, has translucent surface coating provided on cup-shaped base plate, which is manufactured from translucent material e.g. glass, and water gauge in recess is provided in surface coating

The holder has a cup-shaped base plate (2) manufactured from a translucent material e.g. glass or plastic. Surface coating (6) on an outer side (14) of the base plate is translucent. A recess (4) is provided in the surface coating for retaining a water gauge (5). Water level in the holder is observed when light passes through the wall of the holder. The surface coating adapts to the surrounding of the holder. An independent claim is also included for a method for manufacturing a plant pot holder.

Sockel für die Wasserzufuhr eines Pflanzentopfes

Sockel für die Wasserzufuhr eines Pflanzentopfes, der einen Körper (1) und einen durchlässigen Stab (2) umfasst, wobei der Körper (1) eine Plattform (12), auf die ein Pflanzentopf (3) gestellt werden kann, umfasst und mit einer Aufnahmekammer (11) ausgebildet ist, in der eine Flüssigkeit aufgenommen ist, und wobei der Stab (2) in die Aufnahmekammer (11) ragt und aus der Plattform (12) herausragt.

Vorrichtung zur Überwachung und Meldung der Wasserversorgung von Zimmerpflanzen

Vorrichtung zur Wassermangel- bzw. Wasserüberschusswarnung von Zimmerpflanzen bestehend aus wenigstens einer Kraftmessvorrichtung, einer Auswerteelektronik und einer elektronischen Meldeeinrichtung, welche das Gewicht der Pflanzen mit Blumen- bzw. Übertopf und Erde oder Substrat mithilfe wenigstens einer Kraftmessvorrichtung erfasst um eine Aussage über Überschuss oder Mangel der Wasserversorgung machen zu können, dadurch gekennzeichnet, dass die Rückmeldungen der Vorrichtung mittels einer elektronischen Sprachausgabe erfolgen.

Supplying liquid to constant level in containers

An apparatus 1 for maintaining a desired level of liquid in a liquid container 3 by gravity flow from a closed non-collapsing reservoir 2 for the liquid. A liquid supply pipe 4 extends from the reservoir to the liquid container, and an air inlet pipe 5 extends from a point in said reservoir above the level of liquid intake to said supply pipe and terminating above the outlet of said supply pipe at or adjacent to the intended level of liquid in said liquid container. Liquid from the reservoir fills the liquid container until the level of liquid reaches the level of the air inlet pipe. Air cannot be drawn into the reservoir, so that liquid ceases to flow out from it. If the liquid level falls air can enter through the air inlet pipe until the liquid level is again proximate the level of the air inlet pipe. ...

INDICATING DEVICES

APPARATUS FOR USE IN HYDROPONICS

DOSED DELIVERY DEVICE FOR LIQUIDS

Planting container for hydraulic culture

EINRICHTUNG FUR DIE HYDROKULTUR VON PFLANZEN

WASSERSTAND-MESSVORRICHTUNG FÜR PFLANZENGEFÄSSE

Eine Wasserstands-Messvorrichtung (8, 16; 30, 16) für Pflanzenkulturanordnungen mit einem Pflanzengefäss (1) zur Aufnahme von Pflanzsubstrat (2) umfasst im Wesentlichen ein Aufnahmemittel (8, 30) zur Aufnahme und/oder Führung eines Messmittels (16). Das Messmittel besteht dabei im Wesentlichen aus einem transparenten Rohr. Das Aufnahmemittel dient dazu, das Messmittel während des Absenkens seines einen Endes innerhalb oder ausserhalb des Pflanzengefässes (1) zuzuführen. Das Aufnahmemittel (8, 30) ist bevorzugt so angeordnet, dass das Messmittel (16) bis zu dem Boden des Teiles (6) der Pflanzenkulturanordnung absenkbar ist, das als Auffangbehälter für das Giesswasser dient. Der Wasserpegel (23) in der Pflanzenkulturanordnung (1, 5, 6) ist dadurch bestimmbar, dass das obere Ende des Messmittels (16) verschlossen und das Messmittel (16) herausgezogen wird, wonach die Höhe der Wassersäule im Messmittel ablesbar ist, die mit der Höhe des Wasserstandes in der Pflanzenkulturanordnung (1, 5, 6) ...

MECHANISM FOR THE HYDRAULIC CULTURE OF PLANTS

MECHANISM FUR THE HYDRAULIC CULTURE OF PLANTS

PLANT POT WITH STORE OF WATER

Drainage device and system for plant pots

A drainage device, system and arrangement for a plant pot, including: (a) a tray adapted to receive drainage fluid from the plant pot; (b) a cover for the drainage tray, the cover being permeable and adapted for a base of the plant pot to stand thereon, further adapted for the drainage fluid from the plant pot to pass there- through, into the tray; (c) an outlet port disposed in a sidewall of the tray; and (d) a drainage tube connected to the outlet port, the drainage tube adapted to provide a conduit for conveying the drainage fluid out of the tray.

MONITORING VAPOR CONCENTRATION AT A PHASE INTERFACE

Tyre pressure determination

LIQUID LEVEL MAINTAINING DEVICE

The present invention pertains to a plant watering system that is particularly suited for a plant container with a reservoir of water below the plant. The watering system uses a pilot controlled sequence valve to maintain the water level of the reservoir. The sequence valve includes a diaphragm that is pneumatically coupled to a pilot port fixed to the reservoir and submersed in the water. When the water level in the reservoir reaches a lower limit, the reduced pressure on a diaphragm causes it to open a pathway for water to flow from a water supply to the reservoir. When the water level reaches an upper limit, the increased pressure on the diaphragm causes it to close that pathway and shut off the water flow. The water supply can be an elevated tank or the pressurized water system. A pressure regulator can be used to lower the water pressure at the intake of the sequence valve. A nozzle controls the flow rate of water into the reservoir.

SELF-WATERING PLANTER

A self-watering planter, and a method for watering a plant, are described. A self-watering planter may include a container defining a cavity, a platform in the container that separates the cavity into two environments, and a fill tube and a down tube extending through the platform.

LIQUID TRANSFER DEVICE

ROBOTIC APPLICATORS IN AN ASSEMBLY LINE GROW POD AND METHODS OF PROVIDING FLUIDS AND SEEDS VIA ROBOTIC APPLICATORS

Assembly line grow pod (100)s, watering stations, and seeder components that include robotic applicators are disclosed. An assembly line grow pod (100) includes a tray (106) held by a cart (104) supported on a track (102). The tray (106) includes a plurality of sections. The assembly line grow pod (100) further includes a watering component (109) providing fluid and a robotic applicator (300) including an articulating robot arm (310) having one or more outlets (340) that selectively dispense the fluid therefrom. The articulating robot arm (310) is positioned to align the one or more outlets (340) with a corresponding one or more of the plurality of sections such that the fluid is dispensable into each of the plurality of sections independently.

SYSTEM AND METHOD FOR CULTIVATING PLANTS

A system for storing and cultivating plants and enhancing usable area or space is provided. One or more racks are provided for housing plants, such as potted plants, in arrays extending in at least a vertical direction. Lighting is provided to provide ultraviolet and infrared radiation in the system. At least one rack is selectively moveable with respect to at least one lighting element, such that proximity between plants and at least one lighting element may be selectively varied.

Intelligent potting equipment

Edible rose planting device for families

Plant pot soil humidity warning device - has sponge escutcheon through pot wall to indicating paper in escutcheon and covered by element

METHOD AND DEVICE FOR DETECTING AND REPORTING NEEDS OF WATERING A PLANT

MONITORING DEVICE FOR MAINTENANCE OF PLANTS AND CORRESPONDING SYSTEM

L'invention concerne un dispositif (1) de surveillance pour l'entretien de plantes comprenant une unité d'alimentation électrique (160), une partie principale (12) comprenant au moins un capteur (130) pour mesurer une grandeur physique de l'environnement d'une plante, une partie secondaire (14) comprenant au moins une source lumineuse (150), et une unité de traitement (110) contrôlant un paramètre d'éclairage de la source lumineuse (150) en fonction des données mesurées par l'au moins un capteur (130). L'invention concerne également un système de surveillance de plantes comprenant un pot et le dispositif précité.

Hanging port water indicator

A hanging pot water indicator having a hollow tubular spring housing, a cap on the upper end of the tubular housing, a hollow tubular sliding sleeve telescopically slidable, an opening in the cap, a coiled extension spring within the tubular housing and the sleeve, an upper wire extension portion extending from the upper end of the spring passing through the opening in the cap, and defining an upper hook, and a lower wire extension on the lower end of the spring, extending from the sleeve and formed to define a lower hook. 1. A hanging pot water indicator comprising;a hollow tubular spring housing;a cap on the upper end of the tubular housing;a hollow tubular sliding sleeve, being telescopically slideable relative to the lower end of the housing;an opening in the cap;an extension spring within the tubular housing and the sleeve;an upper wire extension portion extending from the upper end of the spring passing through the opening in the cap, and defining an upper attachment,a lower wire extension on the the lower end of the spring, extending from the sleeve, and formed to define a lower attachment; and,a spring engagement device on the lower end of the sleeve.2. The hanging pot water indicator as claimed in and including a collar on the cap secured at the upper end of the tubular spring housing and retention means located between the spring housing upper end in the collar.3. The hanging pot water indicator as claimed in claim 2 , including a flared lower end portion on the spring and a trumpet portion on the sleeve.4. A hanging pot water indicator as claimed in claim 3 , including catch means on said trumpet portion engaging said spring.5. A hanging pot water indicator as claimed in for use with a main water supply and including a control valve connected to said supply and controlling water flow claim 1 , an operating rod on said housing operating said control valve claim 1 , and a hose on said valve supplying water to said pot.6. A hanging pot water indicator as ...

Vertical Aeroponic Plant Growing Enclosure

A grow plant enclosure to maximize plant density for a given growing area has a perimeter frame, a first pane, and a second pane. The first pane and the second pane are removably attached to the perimeter frame about opposite sides to form a hollow enclosure. A plurality of plug holder openings traverses through the first pane and the second pane, wherein each of the plug holder openings is designed to receive one of a plurality of plant holders for growing various plant types. A plurality of supply tubes traverse into the perimeter frame through a plurality of supply tube openings and each has a plurality of spray nozzles to deliver nutrient solution to the root zone of the plants retained in the plurality of plant holders. Excess nutrient solution is released through a drain tray and a drain fixture positioned about the bottom of the perimeter frame.

WATERING DEVICE

One embodiment provides a system, including: an ornament assembly comprising: a fluid pump therein, wherein the fluid pump comprises an inlet and a discharge; a control mechanism operatively coupled to the fluid pump, wherein the control mechanism controls the fluid pump; a power source operatively coupled to control mechanism; and at least a first aperture and a second aperture; the first aperture being connected to the inlet of the fluid pump and having a connection mechanism for connecting a fluid transfer device; and the second aperture being connected to the discharge of the fluid pump and having a connection mechanism for connecting a fluid transfer device. Other aspects are described and claimed. 1. A system , comprising: a fluid pump therein, wherein the fluid pump comprises an inlet and a discharge;', 'a control mechanism operatively coupled to the fluid pump, wherein the control mechanism controls the fluid pump;', 'a power source operatively coupled to control mechanism; and', the first aperture being connected to the inlet of the fluid pump and having a connection mechanism for connecting a fluid transfer device; and', 'the second aperture being connected to the discharge of the fluid pump and having a connection mechanism for connecting a fluid transfer device., 'at least a first aperture and a second aperture;'}], 'an ornament assembly comprising2. The system of claim 1 , wherein the control mechanism is electronically controlled by an information handling device.3. The system of claim 1 , wherein the control mechanism is a switch.4. The system of claim 1 , wherein the fluid pump comprises a water pump.5. The system of claim 1 , wherein the second aperture is located at a lower part of the ornament assembly.6. The system of claim 1 , further comprising a first section of tubing removably attached to the connection mechanism of the first aperture and a second section of tubing removably attached to the connection mechanism of the second aperture.7. The ...

Garden plant watering device

This invention is directed toward a garden pot device that automatically waters garden plants and collects the drainage water. The device has a bottom portion with a source of electrical power and a pump and additionally provides support for a network of tubes leading to pots in which plants are grown. The network of tubes both provides water to the pots and collects water that drains out of the pots for use in the next watering.

APPARATUS FOR CULTIVATING PLANTS

An apparatus for cultivating plants includes a cabinet having a cultivation space, a temperature control device provided in the cabinet to adjust a temperature of the cultivation space, a door configured to open and close the cultivation space, a cultivation shelf provided in the cabinet and configured to seat a seed package, a lighting device provided in the cabinet to radiate light onto the cultivation shelf, and a water supply pipe provided in the cabinet to supply water to the cultivation shelf. The cultivation shelf includes a shelf tray that supports the seed package, a shelf base provided under the shelf tray to accommodate the water supplied from the water supply pipe, and a shutter provided to be openable on the seat. The water accommodated into the shelf base is introduced to the inside of the seat by passing through the shutter when the shutter is opened. 1. An apparatus for cultivating plants , the apparatus comprising:a cabinet that defines a cultivation space;a temperature control device disposed in the cabinet and configured to adjust a temperature of the cultivation space;a door configured to open and close at least a portion of the cultivation space;a shelf disposed in the cabinet and configured to support a seed package of the plants;a lighting device disposed in the cabinet and configured to radiate light to the shelf; anda water supply pipe disposed in the cabinet and configured to supply water to the shelf, a tray comprising a seat configured to support the seed package,', 'a shelf base disposed vertically below the tray and configured to accommodate the water supplied from the water supply pipe, and', 'a shutter disposed at the seat and configured to open at least a portion of the seat to thereby supply the water in the shelf base to an inside of the seat., 'wherein the shelf comprises2. The apparatus according to claim 1 , wherein the shutter comprises:a pressing member configured to protrude to the inside of the seat, the pressing member ...

Tree Stand Water Level Gauge

A water level gauge that indicates the water level in a tree stand is provided herein. The gauge includes a component that floats on the water within the tree stand, a shaft with indicator markings attached to the float component, a transparent housing through which the shaft passes, an indicator line on the housing that, when compared to the indicator markings on the shaft, indicates the level of the water in the tree stand. An attachment apparatus is also provided that attaches the present invention to the tree stand. 1. An apparatus comprising:a float that floats on the surface of water within a tree stand; an elongated shaft that is connected to the float, the shaft extending from the float to outside of the tree stand so that a portion of the shaft is visible to a user; a transparent or semi-transparent housing through which the shaft passes, the housing having a large enough inner diameter so that vertical movement of the shaft is not prevented; a housing clamp that clamps to the housing and holds the housing in place, the housing clamp being attached to the housing so that adjustment of the position of the housing is possible; an attachment body that attaches to the housing clamp, the attachment body allowing the housing clamp to be positioned over the interior of the tree stand so that the shaft and float can extend down from the housing to the surface of the water within the tree stand; and an adhesive that secures the attachment body to the tree stand.2. The apparatus of further comprising one or more indicator markings on the shaft that indicate to the user the level of the surface of the water within the tree stand.3. The apparatus of wherein changes in the vertical position of the indicator markings are used to track the corresponding changes in the level of the surface of water within the tree stand.4. The apparatus of wherein the indicator markings are visible from within the housing.5. The apparatus of further comprising and end marker that marks the ...

Soil Ecosystem Management and Intelligent Farming Arrangement

An intelligent farming arrangement comprises a cultivation receptacles receiving a soil medium for cultivation of a plant. Each receptacle has a growth condition sensor for monitoring a condition of the soil medium in the receptacle. A leaching reservoir arranged below the receptacles receives leached nutrients from the receptacles gravity. A fluid redistribution arrangement having at least one fluid pump is arranged within the reservoir for redistributing such nutrients from the reservoir to the receptacles. A controller is in communication with each sensor and the fluid redistribution arrangement, the controller configured to operatively provide a GUI, via a communications network, to a user, the GUI having a prediction engine configured to predict plant growth in each receptacle by analysing the monitored soil condition, the GUI configured to display such predicted plant growth and monitored soil condition and to enable remote control of the fluid redistribution arrangement in real-time. 1. An intelligent farming arrangement comprising:a plurality of cultivation receptacles for receiving a soil medium therein for operative cultivation of a plant, with at least one growth condition sensor configured to operatively monitor a condition of the plant and/or soil medium;a leaching reservoir operatively arranged below said receptacles for receiving leached nutrients from said receptacles under the influence of gravity;a fluid redistribution arrangement having at least one fluid pump arranged within the leaching reservoir for redistributing such leached nutrients from the reservoir to the receptacles; anda controller arranged in signal communication with the growth condition sensor and the fluid redistribution arrangement, said controller configured to operatively provide a GUI, via a communications network, to a user, said GUI having a prediction engine configured to predict plant growth in each receptacle by analysing the monitored plant and/or soil condition, the ...

AUTOMATED PLANTER APPARATUS

In some embodiments, an automated planter apparatus may include a reservoir container having a base with a sidewall coupled to and extending away from the base. A reservoir cavity may be disposed within the reservoir container and may be formed and bounded by the sidewall and base. A support lid may be configured to extend over and cover all or portions of the reservoir cavity. One or more receptacles may be disposed within the support lid, and each receptacle may be in fluid communication with the reservoir cavity. One or more pumps may be in fluid communication with the reservoir cavity and each receptacle. A plant container may be removably coupled within a receptacle. A processing unit may be in electrical communication with each pump and be configured to activate and control each pump. 1. An automated planter apparatus for growing plants , the apparatus comprising:a reservoir container having a base with a sidewall coupled to and extending away from said base;a reservoir cavity formed by the sidewall and base disposed within the reservoir container;a support lid extending over the reservoir cavity;a receptacle disposed within the support lid, wherein the receptacle is in fluid communication with the reservoir cavity;a pump for motivating water into the receptacle; anda processing unit, wherein the processing unit is in electrical communication with the pump.2. The apparatus of claim 1 , further comprising a moisture sensor disposed within the receptacle claim 1 , wherein the moisture sensor is in electrical communication with the processing unit claim 1 , and wherein the processing unit activates the pump when the moisture sensor detects moisture below a moisture threshold.3. The apparatus of claim 1 , further comprising a water gauge wherein the water gauge indicates the amount of water within the reservoir cavity.4. The apparatus of claim 1 , further comprising a plant container having a chamber with a water aperture claim 1 , wherein the plant container is ...

DOWNPIPE ASSEMBLY

A vertical garden assembly for coupling to a downpipe of a building, including an elongate base support structure, said base support structure having a direction of 5 extend that is coaxial the downpipe; and a series of receptacles coupled in spaced apart positions to the base support member in said direction of extent, wherein each receptacle of said receptacles is shaped to hold soil for growing plants therein. 1. A vertical garden assembly for coupling to a downpipe of a building , including(a) an elongate base support structure, said base support structure having a direction of extent that is coaxial the downpipe; and(b) a series of receptacles coupled, in spaced apart positions, to the base support member in said direction of extent,wherein each receptacle of said receptacles is shaped to hold soil for growing plants therein.2. The vertical garden assembly claimed in claim 1 , wherein the base support structure includes one elongate member that extends an end to end extent of the assembly.3. The vertical garden assembly claimed in claim 1 , wherein the base support structure includes two adjacent elongate members that extend in parallel an end to end extent of the assembly.4. The vertical garden assembly claimed in claim 1 , wherein each receptacle includes one or more drainage slots so that claim 1 , in use claim 1 , water received by a first receptacle in the series in part drains through to the second receptacle in the series and so forth.5. The vertical garden assembly claimed in claim 1 , wherein each one of said receptacles is shaped to at least partially wrap around the downpipe.6. The vertical garden assembly claimed in claim 5 , wherein each receptacle has a generally rectangular shape defined by two long sides claim 5 , two short sides and a base member.7. The vertical garden assembly claimed in claim 6 , wherein a long side of each receptacle is shaped to at least partially wrap around the downpipe.8. The vertical garden assembly claimed in claim 7 , ...

PLANTER SYSTEM USING WASTE MATERIALS

The planter system using waste materials repurpose waste materials to construct a self-irrigating planter that promotes plant growth in a protective environment. The planter system includes a water reservoir constructed from scrap tire defining a hollow interior serving as water storage, the reservoir being buried in soil. A condensation funnel having a sloped condensation skirt extends into the center opening of the scrap tire to direct condensate into the water reservoir. A root ball cover made from scrap newspaper covers the root system of a plant, and the plant is buried in the center opening of the scrap tire. A soil protection cover is placed atop the root ball cover to protect the soil of the root ball, and a support tube extends therefrom to protect the stem of the plant from environmental conditions. A valve regulates delivery of water to the reservoir. Most components are made from scrap plastic. 1. A planter system using waste materials , comprising:a water reservoir adapted to be buried horizontally in soil, the water reservoir being a scrap tire having a hollow interior for storing water therein and a center opening;a condensation funnel disposed in the center opening of the scrap tire, the condensation funnel directing water condensate into the water reservoir;a root ball wrap adapted to cover a root ball of a plant, the root ball wrap facilitating planting of the plant in the center opening of the scrap tire;a soil protection cover disposed atop the root ball wrap, the soil protection cover protecting exposed surrounding soil of the root ball from harsh environmental conditions;a valve coupled to the soil protection cover, the valve control delivery of water to the water reservoir; andan elongate support tube coupled to the soil protection cover, the support tube being adapted to cover a stem of the plant for support and protection from harsh environmental conditions.2. The planter system according to claim 1 , wherein said condensation funnel ...

AGRICULTURAL WRAP AND METHOD OF MAKING THE SAME

An agricultural wrap includes a continuous planar main body formed of a flexible and permeable material, an amount of growing matter, and at least one irrigation tube. The body has first and second sides, first and second ends, an inner surface, an outer surface disposed against a base surface, and at least one aperture. With the growing matter disposed against the inner surface, the first and second sides are positioned around the growing matter to define a holding pocket. An irrigation tube being disposed against the main body and above the base surface leaks water that permeates through the main body and saturates the growing matter. 1. In an agricultural environment having a base surface , an agricultural wrap , comprising:a continuous planar main body formed of a flexible and permeable material, said body having first and second opposing sides with respective terminal edges, first and second ends, an inner surface, an outer surface disposed against the base surface, and at least one aperture;an amount of growing matter disposed against the inner surface, with at least a portion of the amount of growing matter being exposed via the at least one aperture; andat least one irrigation tube attached to one of the first and second sides, the at least one tube having a volume of water therein and at least one hole;wherein the first and second sides, are positioned around said amount of growing matter, the first and second sides define, in conjunction with the first and second ends, a holding pocket, and the first and second sides encapsulate said amount of growing matter within the holding pocket, with the at least one irrigation tube being disposed, against said main body, and above the base surface, and said amount of growing matter includes at least a portion of the volume of water transferred from the at least one hole and through said main body.2. The agricultural wrap of claim 1 , wherein the at least one aperture is formed by cutting the material.3. The ...

Drip irrigation device for flower pot

A drip irrigation device for a flower pot is provided with a main member including a central aperture, porous top and bottom layers around the central aperture, an intermediate layer around the central aperture and sandwiched between the top and bottom layers, and a slit extending from the central aperture to an edge of the main member and cutting through the intermediate layer and the top and bottom layers; and a base including at least one curved member, a central hole, a plurality of first compartments in an outer portion of each curved member, a plurality of holes through a bottom of each first compartment, a second compartment in an inner portion of each curved member, a drip hole through a bottom of each second compartment, and a plurality of spaced legs extending downward from a bottom of the base. 1. A drip irrigation device for a flower pot , comprising:a main member including a central aperture, top and bottom layers around the central aperture, an intermediate layer around the central aperture and sandwiched between the top and bottom layers, and a slit extending from the central aperture to an edge of the main member and cutting through the intermediate layer and the top and bottom layers wherein the top and bottom layers are porous; anda base including at least one curved member, a central hole, a plurality of first compartments in an outer portion of each of the at least one curved member, a plurality of holes through a bottom of each first compartment, a second compartment in an inner portion of each of the at least one curved member, a drip hole through a bottom of each second compartment, and a plurality of spaced legs extending downward from a bottom of the base.2. The drip irrigation device of claim 1 , further comprising a plurality of spaced gaps around an inner wall of the central hole of the main member and partially cutting through the intermediate layer and the top and bottom layers.3. The drip irrigation device of claim 1 , wherein the ...

SYSTEM AND METHOD FOR PRODUCING A PLANT

A system () for producing a plant (), the system having an indoor environment, a plurality of plant holders () for growing and transporting a plant therein, a controller () for at least controlling temperature and humidity in the indoor environment. The plant holder has a semi-permeable foil () defining a non-planar boundary of an interior space and an exterior space, a reservoir (), having an amount of liquid for feeding the plant. The reservoir () and the semi-permeable foil () are arranged to allow the plant to grow in the interior space. The semi-permeable foil () has permeation of water vapor. 4. The system according to claim 1 , wherein the semi-permeable foil is arranged to cover at least 80% surface area of a complete boundary between interior space of the plant holder and the exterior space.5. The system according to claim 1 , wherein the semi-permeable foil has a thickness and comprising perforations forming a plurality of tunnels claim 1 , wherein a ratio of a square-root of an area of a perforation and the thickness of the semi-permeable foil is between 0.6 and 1.35.6. The system according to claim 1 , further comprising an air flow generator claim 1 , arranged to create a laminar flow on at least two surface areas of the non-planar boundary.7. The system according to claim 1 , wherein the semi-permeable foil and the controller is arranged to allow water vapor to pass the non-planar boundary at a controlled rate claim 1 , such that the amount of liquid in the interior space decreases in a rate of 10-30 ml per 24 hours.8. The system according to claim 1 , wherein the semi-permeation foil comprises perforations uniformly distributed perforations claim 1 , each perforation preferably having an open area in a range between 0.002-0.035 mm.9. The system according to claim 1 , wherein the system is arranged without a water supplier for feeding the plants from the exterior space.11. The system according to claim 1 , wherein the foil is arranged to allow changing ...

Vertical Aeroponic Plant Growing Enclosure with Support Structure

A grow plant enclosure to maximize plant density for a given growing area has a perimeter frame, a first pane, and a second pane. The first pane is adjacently connected to the perimeter frame, while the second pane is removably attached to the perimeter frame opposite the first pane to form a hollow enclosure. A plurality of plug holder openings traverses through the first pane, and optionally the second pane, being designed to receive a plurality of plant holders for growing various plant types. A plurality of supply tubes traverse into the perimeter frame through a plurality of supply tube openings and each have a plurality of spray nozzles to deliver nutrient solution to the root zone of the plants retained in the plurality of plant holders. Excess nutrient solution is released through a drain fixture positioned about the bottom of the perimeter frame. 1. A grow panel enclosure comprises:a first pane;a perimeter frame comprises a perimetric lip and a seat;a second pane comprises a pane inset and a perimetric flange;a plurality of plug holder openings traversing through the first pane;the first pane being adjacently connected to the perimeter frame opposite the perimetric lip;the seat being positioned adjacent to the perimetric lip opposite the first pane;the perimetric lip delineating an access opening;the second pane being adjacently attached to the perimeter frame;the second pane being positioned into the access opening;the pane inset being terminally positioned along the second pane;the pane inset being positioned within the access opening adjacent to the seat;the perimetric flange being positioned adjacent to the perimetric lip; anda plurality of supply tube openings traversing through the perimeter frame.2. The grow panel enclosure as claimed in comprises:the plurality of supply tube openings traversing through the second pane.3. The grow panel enclosure as claimed in comprises:the plurality of supply tube openings being positioned through the perimeter ...

Stackable Modular Planter

A stackable modular planter includes an open top plant box with a base and four side walls adapted to receive a growing medium and plants. The open top plant box has a first width. An irrigation box below the open top plant box base has a second width larger than the first width. The irrigation box can be filled with irrigation fluid. An open top hopper on one side of the open top plant box on top of the irrigation box can receive irrigation fluid which drains into the irrigation box. An overflow drain aperture in the irrigation box lets excess irrigation fluid flow. When a plurality of the stackable modular planters are stacked above another planter, excess irrigation can flow from the overflow aperture into the hopper of the planter below.

MICROGREENS GROW TRAY AND KIT

A tray is provided for growing microgreens. The tray has a tray housing defining a fluid reservoir, and the tray has tray walls enclosing the fluid reservoir. The tray further has a tray floor defining a bottom of the fluid reservoir within the tray housing, and substantially parallel internal walls extending substantially vertically from the tray floor within the fluid reservoir. Each internal wall has an internal wall height smaller than a tray wall height of each of the tray walls. Internal reservoir gaps are provided between each end of each internal wall and an adjacent inner surface of a tray wall such that a segment of the tray floor separates each wall of the plurality of internal walls from the plurality of tray walls. Also provided is a kit for growing microgreens including the tray, a mat, and a lid. 1. A tray for growing microgreens comprising:a tray housing defining a fluid reservoir, the tray comprising a plurality of tray walls enclosing the fluid reservoir;a tray floor defining a bottom of the fluid reservoir within the tray housing;a plurality of substantially parallel internal walls extending substantially vertically from the tray floor within the fluid reservoir, each internal wall of the plurality of substantially parallel internal walls having an internal wall height smaller than a tray wall height of each of the tray walls;a plurality of internal reservoir gaps between each end of each wall of the plurality of internal walls and an adjacent inner surface of a tray wall such that a segment of the tray floor separates each wall of the plurality of internal walls from the plurality of tray walls.2. The tray of wherein one of the plurality of substantially parallel internal walls has a water fill level indicator.3. The tray of wherein the water fill level indicator is substantially centrally located within the fluid reservoir.4. The tray of wherein the water fill level indicator comprises a fill level segment of the corresponding internal wall ...

HIGH DENSITY INDOOR FARMING APPARATUS, SYSTEM AND METHOD

An indoor farming system includes a water-based nutrient bath resident in a tank and a pump for pumping the bath from the tank upwardly through a plurality of pipes to at least one divided high-density table comprising growing crops resting in at least one float. The plurality pipes includes at least one valve suitable to shut off the bath per each of the high density tables. At least one non-block drain is coupled to the at least one divided high-density table. The bath turbulently flows respectively across the at least one divided high-density table, down the at least one non-block drain, and back into the tank that includes the nutrient bath. A lighting system provides moving light from points above the growing crops. 1. An indoor farming system , comprising:a water-based nutrient bath resident in a tank;a pump for pumping the bath from the tank upwardly through a plurality of pipes to at least one divided high-density table comprising growing crops resting in at least one float;at least one non-block drain on each divided one of the tables, wherein the bath turbulently flows respectively across each of the divided tables and down the at least one non-block drain based on at least gravity, and then back into the tank that includes the nutrient bath; andat least one solenoid having chilled liquid passing therethrough to maintain a temperature of the nutrient bath, wherein the at least one solenoid traverses substantially a lateral length of the tank.2. An indoor farming system , comprising:a water-based nutrient bath resident in a tank;a pump for pumping the bath from the tank upwardly through a plurality of pipes to at least one divided high-density table comprising growing crops resting in at least one float;at least one non-block drain on each divided one of the tables, wherein the bath turbulently flows respectively across each of the divided tables and down the at least one non-block drain based on at least gravity, and then back into the tank that includes ...

Plant Tray

A horticulture tray including a plurality of growing cells each configured to accommodate a stabilized growth plug therein. A support peak of each cell is configured to protrude into a center of the stabilized growth plug and force soil of the stabilized growth plug outward and away from the support peak. A sidewall of each cell is angled to force soil of the stabilized growth plug inward and away from the sidewall. The support peak and the sidewall force soil of the stabilized growth plug together between the support peak and the sidewall to compact the soil to form a soil bridge that extends between the support peak and the sidewall, and prevents soil from passing through the growing cell. 1. A horticulture tray having a plurality of growing cells each configured to accommodate a stabilized growth plug therein , each stabilized growth plug including a plant , soil , and a soil wrapper , each growing cell comprising:a first end defining an aperture configured to receive the stabilized growth plug;a second end opposite to the first end, the second end defining at least one drain hole for allowing excess liquid to drain therethrough;a sidewall extending from the first end towards the second end, the sidewall tapers inward from the first end; anda support peak proximate to, but spaced apart from, the second end, the support peak supports the stabilized growth plug spaced apart from the second end; the support peak is configured to protrude into a center of the stabilized growth plug and force soil of the stabilized growth plug outward and away from the support peak;', 'the sidewall is angled to force soil of the stabilized growth plug inward and away from the sidewall; and', 'the support peak and the sidewall force soil of the stabilized growth plug together between the support peak and the sidewall to compact the soil to form a soil bridge that extends between the support peak and the sidewall, and prevents soil from passing to the second end., 'wherein2. The ...

MODULAR RESERVOIR WICK

A modular wick for accommodating garden beds of various sizes comprises a generally planar platform Connectors are provided proximate to an outer edge of the platform that allow for connection with an adjacent wick. Each of the wick comprises at least one well that is filled with a wicking medium. Apertures are provided in the walls of the wells to allow water to enter into the wicking medium. By connecting the wicks together, various sizes can be formed. 1. A wick for supplying water to a growing medium through a wicking medium and capable of connecting to an adjacent second wick , said wick comprising:a generally planar platform for supporting said growing medium, said platform comprising an outer edge and one or more openings extending therethrough;for each of said openings, one or more walls extending from said platform, said walls forming a well for holding said wicking medium, said well having an interior in communication with said opening such that said interior is Open to space above said platform, and wherein at least one of said walls comprises one or more apertures to permit contact of said water with said wicking medium;one or more male connectors arranged proximate to said outer edge; andone or more female connectors arranged proximate to said outer edge, wherein said female connectors are adapted for mating with corresponding male connectors on said adjacent second wick.2. The wick of claim 1 , wherein said platform is generally rectangular in shape.3. The wick of claim 1 , wherein said female connectors comprise slots.4. The wick of claim 3 , wherein said male connectors comprise:a projecting member extending above said platform and beyond said outer edge; andone or more tabs extending generally downwardly from said projecting member, said tab dimensioned to fit within said slot.5. The wick of claim 1 , wherein said well is generally cylindrical.6. The wick of claim 1 , wherein at least a portion of a bottom of said well is open.7. The wick of claim 1 ...

AUTOMATIC HOUSEPLANT WATERING DEVICE

An automatic houseplant watering device allowing the rate of water flow or nutrient solution flow, the duration of irrigation, the time of irrigation and the number of irrigations per day to be adjusted by the user. A programmable timer controls a solenoid valve which connects a reservoir to a water distributor. The gravity outflow of water or nutrient solution is transferred from the water distributor to the planters by small size hoses. The rate of water flow or nutrient solution flow to the planters can be adjusted using small valves attached to the end of hoses. A float control valve is used on the upper part of the reservoir to supply water to the reservoir. 1) An automatic houseplant watering device comprising:a) a reservoir with a bottom, a sidewall and a lid.b) automatic refilling means to automatically refill the said reservoir.c) a solenoid valve attached to the said reservoir.d) a programmable timer connected to the said solenoid valve.e) a water distributor attached to the outlet of the said solenoid valve.f) irrigation hoses for transferring water from the said water distributor to the planters.g) flow control means attached to the said hoses to adjust the rate of water or nutrient solution flow to the planters.2) the automatic house watering device as claimed in wherein the said reservoir and the said automatic refilling means are not installed.3) the automatic houseplant watering device as claimed in wherein the said refilling means are attached to the said reservoir with or without fixing and sealing components and materials.4) the automatic houseplant watering device as claimed in wherein the said solenoid valve is attached to the said reservoir with or without fixing and sealing components and materials.5) the automatic houseplant watering device as claimed in wherein the said solenoid valve is connected to the said programmable timer with or without wires.6) the automatic houseplant watering device as claimed in wherein the outlet of the said ...

SYSTEM AND METHOD FOR CULTIVATING PLANTS

A system for storing and cultivating plants and enhancing usable area, space or volume is provided. One or more racks are provided for housing plants, such as potted plants, in arrays extending in at least a vertical direction. Lighting is provided to provide ultraviolet and infrared radiation in the system. At least one rack is selectively moveable with respect to at least one lighting element, such that proximity between plants and at least one lighting element may be selectively varied. 1. A system for cultivating a plurality of plants , the system comprising:a first moveable rack, the first movable rack comprising a plurality of storage units adapted to receive plants distributed in at least a vertical orientation, and wherein the first moveable rack is provided in communication with a floor track and the first moveable rack is moveable in a direction defined by the floor track;a vertically elongate lighting element secured to an elongate horizontal track, wherein a position of the vertically elongate lighting element is moveable relative to the elongate track and the first moveable rack, and the vertically elongate lighting element is operable to provide at least one of light and heat;a second rack comprising a plurality of storage units adapted to receive plants, the second rack comprising a stationary rack; andwherein a relative position of the second rack and the lighting element is adjustable by adjusting the position of the vertically elongate lighting element relative to the elongate horizontal track.2. The system of claim 1 , wherein the first moveable rack comprises a plurality of storage units arranged in adjacent rows and columns on a first side claim 1 , and a plurality of storage units arranged in adjacent rows and columns on a second side.3. The system of claim 1 , wherein at least one of the storage units comprises a shelf.4. The system of claim 1 , further comprising a plurality of vertically elongate lighting elements.5. The system of claim 2 , ...

APPARATUS AND METHOD FOR CONTROLLING IRRIGATION PROCESS BY SENDING ENCODED ACOUSTICAL MESSAGES ALONG IRRIGATION CONDUIT

A latching solenoid slave valve for wirelessly receiving watering instructions from an irrigation controller via acoustical waves or pulses. The latching solenoid slave valve comprises a diaphragm in direct communication with a main water distribution conduit of the irrigation system for detecting acoustical waves or pulses transmitted by pressurized water of the main water distribution conduit. An accelerometer is supported by the diaphragm for generating an output signal as the diaphragm vibrates due to detection of the acoustical waves or pulses. A microcontroller is electrically coupled to the accelerometer for processing the output signals of the accelerometer, and the microcontroller determining, from the processed output signals of the accelerometer, whether or not the latching solenoid slave valve is to commence a watering cycle for a desired duration of time. An irrigation controller is wirelessly coupled to the latching solenoid slave valve for controlling operation thereof. 1. A latching solenoid slave valve which wirelessly receives watering instructions from an irrigation controller via acoustical waves or pulses , the latching solenoid slave valve comprising:a first surface of a diaphragm in direct communication with a main water distribution conduit of the irrigation system for detecting acoustical waves or pulses transmitted by pressurized water when contained within the main water distribution conduit;an accelerometer being supported by an opposite second surface of the diaphragm for generating an output signal as the diaphragm oscillates due to detection of the acoustical waves or pulses in the pressurized water when contained within the main water distribution conduit; anda microcontroller being electrically coupled to the accelerometer for processing output signals of the accelerometer, and the microcontroller determining, from the processed output signals of the accelerometer, whether or not the latching solenoid slave valve is to commence a ...

INLAND AQUAPONICS SYSTEM USING BIOFLOC TECHNOLOGY

A closed recirculating aquaponics system combined with a biofloc tank for symbiotic breeding of aquatic species and plant species, wherein the culture water for growing aquatic species is transferred to a plant growing apparatus, organic material in the culture water is used as nutrients for plant species and the water is purified in the plant growing apparatus, and purified water is reused as culture water for aquatic species to facilitate symbiotic breeding of aquatic species and plant species without any need of culture water exchange, reducing cost for production and enhancing production efficiency. 1. An inland biofloc aquaculture system comprising a biofloc tank for growing nutrient microorganisms and aquatic species , said biofloc tank formed on a single-layer or plural layer frame , in connection with a reservoir tank ,wherein culture water containing organic feces generated from aquatic species is filtrated in said reservoir tank to be firstly purified; andwherein culture water purified in the above first purification process is transferred to an aquaponics plant growing apparatus, to be secondly purified by plant breeding and is supplied back to said biofloc aquaculture system.2. The biofloc aquaculture system and the aquaponics plant growing apparatus of claim 1 , further comprising a monitoring system which monitors aquaculture of aquatic species and plant breeding claim 1 ,wherein said monitoring system comprises: a water quality measurement device of said biofloc aquaculture system; and a thermo-hygrostat and an illumination regulator of said aquaponics plant growing apparatus, andwherein said biofloc aquaculture system and said aquaponics plant growing apparatus are driven by the control of said monitoring system.3. The system of claim 1 , wherein said biofloc tank is connected to a cooling reservoir tank equipped with a cooler and a heating reservoir tank equipped with a heater claim 1 , in order for culture water discharged from said biofloc ...

Self-watering pot assembly for plants

It comprises an outer pot having an inner cavity for receiving an inner pot, the outer pot having an interior where a tray structure is provided comprising trays dividing said interior into sub-chambers arranged at different levels for supplying watering liquid towards the inner cavity at different heights through openings formed in the outer and inner pots. Valve means operated according to the hydrostatic pressure of the watering liquid in the sub-chamber are provided for allowing controlled supply of watering liquid to the inner cavity. Adjusting means are provided for controlling the amount of watering liquid supplied into each sub-chamber.

ROTATABLE RACK SYSTEM

A rotatable rack system for growing plants is disclosed which has a frame, a plurality of mobile trays arrayed around the frame, where each mobile tray contains at least one plant and a chain linking said plurality of mobile trays together, supported by the frame with a drive mechanism configured to drive the chain wherein the frame is configured to support the plurality of mobile trays encircling an enclosed space. Several configurations of the frame that are equally energy efficient are also disclosed, along with a method of growing plants using the system. 2. The rotatable rack system of claim 1 , wherein the frame comprises a first side and a second side claim 1 , wherein the gradient of the first side differs from the gradient of the second side claim 1 , such that the trays on the first side requires less effort to drive the chain than on the second side.3. The rotatable rack system of claim 1 , further comprising an irrigation system for supplying water to the rotatable rack system.4. The rotatable rack system of claim 3 , wherein said irrigation system supplies water to the drive mechanism claim 3 , wherein the drive mechanism comprises a water wheel.5. The rotatable rack system of claim 4 , wherein said irrigation system comprises a bath in which the mobile trays are allowed to at least partially immerse in.6. The rotatable rack system of claim 5 , wherein said irrigation system comprises a water tank in fluid connection with the bath.7. The rotatable rack system of claim 4 , wherein said water wheel comprises a controller to adjust the rate of rotation of the water wheel claim 4 , which affects the rate of movement of the chain.8. The rotatable rack system of claim 4 , wherein said water wheel comprises a port for an external crank that allows for the water wheel to be rotated manually.9. The rotatable rack system of claim 1 , further comprising a chain guide that guides the chain claim 1 , said chain guide also being able to lock the trays in place in the ...

INDOOR PROCESS AND SYSTEM FOR CULTIVATING AND HARVESTING DUCKWEED

An indoor system and process for cultivating, harvesting, and outputting a culture of aquatic plants, namely duckweed, are provided. The system includes a water treatment system and cultivation and harvesting system. The water treatment system provides for mixing of nutrients and treated water to form a treatment mixture which is supplied to the cultivation and harvesting system for facilitating growth of the duckweed. 1. An enclosed system for cultivating and harvesting a duckweed-based biomass , the enclosed system comprising:a water treatment system including at least one nutrient tank containing at least one nutrient, a treated water and at least one treatment tank containing a treatment mixture; and 'wherein the water treatment system provides for mixing of the at least one nutrient and the treated water to form the treatment mixture which is supplied to the cultivation and harvesting system for facilitating growth of the duckweed-based biomass.', 'a cultivation and harvesting system including a plurality of growing vessels configured to receive duckweek and the treatment mixture for cultivating the duckweek-based biomass, each growing vessel including an associated light source and an outlet for harvesting of the cultivated duckweed-based biomass,'}2. The enclosed system according to claim 1 , wherein the at least one nutrient tank contains a mixture of organic nutrients and inorganic nutrients.3. The enclosed system according to claim 1 , where the at least one nutrient is selected from the group consisting of nitrogen (N) claim 1 , phosphorus (P) claim 1 , potassium (K) claim 1 , sulfur (S) claim 1 , calcium (Ca) claim 1 , iron (Fe) claim 1 , magnesium (Mg) claim 1 , boron (B) claim 1 , manganese (Mn) claim 1 , copper (Cu) claim 1 , zinc (Zn) and molybdenum (Mo).4. The enclosed system according to claim 1 , further comprising a filter and a UV sanitizer claim 1 , wherein untreated from a water supply source passes through the filter and the UV sanitizer to ...

MODULAR PLANT GROWTH APPARATUS

A modular plant growth apparatus for large-scale commercial and residential uses having a housing with a top portion which is a flat panel, a bottom portion and two sides, each side having several hinges which can hingedly connect to a corresponding side of another flat panel, the top portion having a front side with removable plant wells, the bottom portion being angled to act as a stability support portion. The apparatus also including a light source and at least one plant in each plant well. Several housings can be hingedly connected to corresponding other housings so various modular configurations can be formed so as to maximize plant growth. 1. A modular plant growth apparatus comprising:a housing having a top portion which is a flat panel, a bottom portion and two sides, each side having one or more connection devices which interconnect corresponding sides of other flat panels, the top portion having a front side with plant wells, the bottom portion being angled to act as a stability support portion, flat panel having a lower portion which can interlock with bottom portion;a moveable light source; andat least one plant in at least some of the plant wells;wherein several housings are connected to corresponding other housings so the various modular configurations can be formed so as to maximize plant growth.2. The plant growth apparatus of wherein the housing has a series of tubes and connections which transport water via a closed tube system throughout the housing and to each plant well and the bottom portion is a water reservoir.3. The plant growth apparatus of wherein water is pumped to the top portion and allowed to disburse downward to the plant wells.4. The plant growth apparatus of wherein the housings can be configured in large or small polygons or in large rows.5. The plant growth apparatus of wherein the bottom portion being a water reservoir connected to the series of tubes for watering of the plants in the plant wells.6. The plant growth apparatus of ...

INDOOR GARDEN CENTER WITH AN ELECTROSTATIC HYDRATION SYSTEM

An indoor gardening appliance includes a grow module that is rotatably mounted within a grow chamber and that defines pod apertures for receiving a plurality of plant pods. A hydration system includes a discharge nozzle positioned within the grow chamber for selectively discharging a mist of nutrients. An electrostatic charging assembly is coupled to the discharge nozzle for selectively charging the mist of nutrients. By contrast, the plant pods may be electrically coupled to a grounding assembly for selectively grounding the root end of the plant pods. In this manner, the roots of the plants may have an opposing charge relative to the mist of nutrients such that the mist of nutrients are attracted to and deposited on the roots of plants. 1. A gardening appliance , comprising:a liner positioned within a cabinet and defining a grow chamber;a grow module mounted within the liner and defining a pod aperture, the pod aperture being configured for receiving a plant pod;a hydration system comprising a discharge nozzle for selectively spraying a mist of nutrients into the grow chamber;a grounding assembly configured for electrically grounding a root end of the plant pod when then plant pod is inserted through the pod aperture; andan electrostatic charging assembly operably coupled to the discharge nozzle for selectively charging the mist of nutrients such that the mist of nutrients is attracted to the root end of the plant pod.2. The gardening appliance of claim 1 , wherein the plant pod is formed at least partially from a conductive contact claim 1 , and wherein the grounding assembly further comprises:a grounding contact positioned adjacent the pod aperture for contacting the conductive contact of the plant pod when the plant pod is inserted through the pod aperture.3. The gardening appliance of claim 2 , wherein the conductive contact comprises a conductive wire mesh for receiving the root end the plant pod.4. The gardening appliance of claim 2 , wherein the conductive ...

WATER-RETAINING LAYER FOR RETAINING WATER IN SOIL, GREENING SYSTEM AND CONSTRUCTION METHOD OF GREENING SYSTEM

The present invention provides a water-retaining layer for retaining water in soil, the water-retaining layer being composed of a coagulated natural rubber latex; a greening system having the water-retaining layer provided; and a construction method of the greening system, comprising: an exposing step of removing surface soil in a construction target land and exposing underground soil, a spraying step of spraying a natural rubber latex on an exposed surface of soil, a coagulation step of coagulating the natural rubber latex to form a water-retaining layer, and a covering step of covering the water-retaining layer with the removed surface soil. 1. A water-retaining layer for retaining water in soil , the water-retaining layer being composed of a coagulated natural rubber latex.2. The water-retaining layer of claim 1 , wherein the natural rubber latex is a high ammonia natural rubber latex.3. The water-retaining layer of claim 1 , wherein the coagulated natural rubber latex comprises a coagulant.4. A greening system having the water-retaining layer of provided underground in a depth of 3 to 300 cm from a surface of soil.5. A construction method of the greening system of claim 4 , comprising:an exposing step of removing surface soil in a construction target land and exposing underground soil,a spraying step of spraying a natural rubber latex on a surface of the exposed soil,a coagulation step of coagulating the natural rubber latex to form a water-retaining layer, anda covering step of covering the water-retaining layer with the removed surface soil.6. A forming method for forming a water-retaining layer for retaining water in soil claim 4 , the method comprising a step of spraying an un-coagulated natural rubber latex onto target soil and coagulating the un-coagulated natural rubber latex.7. The forming method of claim 6 , wherein a thickness of the water-retaining layer is 0.3 mm or more.8. The forming method of claim 6 , wherein an amount of natural rubber latex is ...

WATER-LEVEL INDICATOR AND WIDE-MOUTH RE-FILL APPARATUS FOR SUB-IRRIGATED, CONTAINERIZED PLANTS THAT ATTACHES TO A PLANT'S GROWPOT

A water-level indicator and re-fill apparatus for the sub-irrigation of potted plants. The indicator uses a float and shaft placed inside an outer tube attached to a potted plant as a way to visually indicate to the user when the reservoir of the sub-irrigation system is running low. While attached to the plant, the user may conveniently re-fill the apparatus after being notified of the water level without disassembling the apparatus or removing it from a decorative planter. 1. A water-level indicator and refill apparatus for potted plants comprising: 'an upper end and a lower end with said upper end having an opening and said lower end having a lower cap with a plurality of drainage slots;', 'an outer tube havinga water-level indicator cap having a closed end and an open end, having a dome on said closed end, which is mechanically attached to said outer tube;a shaft having a first end and a second end extending longitudinally through said outer tube;a float attached to said shaft by a receiving slot; anda clamping system mechanically attached to said outer tube securing said outer tube to said potted plant.2. The water-level indicator and refill apparatus of wherein said outer tube is a semicircular frustroconical canal.3. The water-level indicator and refill apparatus of wherein said outer tube has a height matching the potted plant to which it is attached.4. The water-level indicator and refill apparatus of wherein said shaft is guided through said outer tube by a standoff.5. The water-level indicator and refill apparatus of wherein said water-level indicator cap protrudes through said opening in said upper end of said outer tube.6. The water-level indicator and refill apparatus of wherein said water-level indicator cap is translucent.7. The water-level indicator and refill apparatus of wherein said water-level indicator cap is transparent.8. The water-level indicator and refill apparatus of wherein said water-level is a circular cylinder.9. The water-level ...

LIQUID LEVEL INDICATOR

A water level indicator having an upper housing, with a cavity, having a plurality of indicator flag caps disposed within the cavity, and a plurality of pushrods, wherein each indicator flag cap is connect to one of the plurality of pushrods, and each of the pushrods may have a different length. A plurality of floats, each having a locking hole, which receive and secures one of the plurality of pushrods. A first floats of the plurality of floats has a locking tab that secures the second end of a first pushrod, and the float having at least one through hole which allows a second pushrod of the plurality of pushrods to pass through the first float cage and the first float. 1. A water level indicator comprising:an upper housing, comprising a cavity, wherein a plurality of indicator flag caps are disposed within the cavity in the upper housing;a plurality of pushrods, each of the pushrods has a first end and a second end defining a length that is different from the lengths of the other pushrods in the plurality of pushrods, and wherein the first end of each pushrod in the plurality of pushrods is connect to a different indicator flag cap;a plurality of floats of wherein each float comprises a locking hole, which receives and secures a second end of one of the plurality of pushrods; anda float of the plurality of floats, and wherein the locking hole of the first float secures the second end of a first pushrod of the plurality of pushrods, and the first float comprises at least one through hole which allows a second pushrod of the plurality of pushrods, to pass through the first float.2. The water level indicator of claim 1 , further comprising a shell.3. The water level indicator of wherein each of the floats of the plurality of floats further comprises a float cage claim 1 , and wherein the locking hole in each of the floats is disposed within the float cage of each respective float.4. The water level indicator of further comprising a shell claim 3 , wherein the float ...

TEMPORARY WATER RETENTION DEVICE

Temporary water retention device () comprising: one or more water retaining tank(s) (), forming a temporary water reservoir and comprising water inlet and/or outlet means, regulation means () designed to regulate the flow rate of water through the inlet and/or outlet means, a level sensor () configured to measure the level of water retained in the or one of the retaining tanks, and communication means () comprising: o a first communications interface designed to receive data from the level sensor, o a second communications interface interfacing wirelessly with a remote server, and o data processing means configured to process data received by the first interface and so that the communication means transmit processed data via the second communications interface. 1. A temporary water retention assembly , comprising:one or more water retention trays forming a temporary water tank and comprising a water inlet or outlet,a regulating member adapted to regulate the water flow via the inlet or outlet,wherein said temporary water retention assembly further comprises:a level sensor configured to measure the level of water retained in the or one of the retention trays,a first communication interface adapted to receive data originating from the level sensor,a second communication interface with a remote server, anda processor configured to process data received by the first interface and so that the second communication interface transmits processed data to the remote server.the assembly comprising at least one plate fitting into the or at least one of the retention trays, or is integral with the tray or one of the retention trays, to extend above the water tank,wherein the plate has at least one cell, such that the level sensor extends at least partially into the cell or such that the level sensor opens at the cell.2. The assembly according to claim 1 , wherein the processor is configured to control the regulating member as a function of a flow control.3. The assembly ...

AUTOMATIC SUBTERRANEAN WATERING SYSTEM WITH REFILL INDICATOR AND GRIPPING MECHANISM

An automatic watering system includes a water storage reservoir and a water feed reservoir positioned elevationally below the water storage reservoir. The water feed reservoir has a plurality of water feed apertures aligned substantially horizontally for allowing water to pass from the water feed reservoir to outside of the water feed reservoir. The water feed reservoir is in fluid communication with the water storage reservoir via a water tube with a biased seal and via an air return conduit which has a float valve. The water storage reservoir is in fluid communication with the refill indicator for indicating a water level present within the water storage reservoir. The refill indicator includes a float body that tracks the water level within the water storage reservoir. The automatic watering system may also include a gripping mechanism positioned near a top portion of the water storage reservoir. 1. An automatic watering system comprising:a water storage reservoir;a water feed reservoir positioned elevationally below the water storage reservoir, the water feed reservoir having a plurality of water feed apertures aligned substantially horizontally for allowing water to pass from the water feed reservoir to outside of the water feed reservoir, the water feed reservoir in fluid communication with the water storage reservoir through a refill indicator and terminating at a lower end at a horizontal level below the plurality of water feed apertures, the water feed reservoir being further in fluid communication with the water storage reservoir through an air return conduit terminating at a lower end thereof at a horizontal level above the plurality of water feed apertures and having a float valve that substantially seals the air return conduit when water reaches a predetermined level in the water feed reservoir and thereafter while urged upward by a negative pressure in the water storage reservoir; andthe refill indicator in fluid communication with the water storage ...

AUTOMATIC WATERING VALVE ASSEMBLY

The invention disclosed herein relates to an automatic watering valve actuator assembly. The automatic watering valve actuator assembly comprises a bracket that can attach the assembly to a support member and a valve. In one embodiment, the bracket has an opening that can receive a hook from a hanging planter. When the hook is positioned in the bracket, an actuator button on a valve is engaged to allow fluid flow through an inlet opening to an outlet opening of the valve. In a different embodiment, the bracket also has a clip that can be an enclosed elongate rectangular shape. The clip can receive the hook from a hanging planter. When the hook is positioned on the clip, the actuator button of the valve is engaged allowing fluid flow there through. 1. An automatic watering valve actuator assembly , said automatic water valve assembly comprising:a bracket, wherein said bracket is configured to attach said automatic watering valve actuator assembly to a support member;said bracket having a flange, wherein said flange defines an opening in said bracket, said opening being configured to receive a hook; andsaid bracket having a mounting clip, said mounting clip configured to mount and secure a valve to said bracket, wherein said valve has an actuator button, said actuator button being positioned such that it points in the direction of said opening, said actuator button configured to be actuated by a hook of a hanging member, said valve further comprising an inlet opening and an outlet opening, wherein said inlet opening is configured to attach a tube to said valve to receive fluid, wherein said outlet opening is configured to attach a tube to direct the release of fluid.2. The automatic watering valve actuator assembly of claim 1 , wherein said bracket further comprises a biasing tab claim 1 , said biasing tab positioned opposite the actuator button on said bracket claim 1 , and said biasing tab being configured to bias a hook in the direction of said actuator button.3. ...

Potted Plant System

The potted plant system of the present invention uses the space between the inner and outer pots as a reservoir for water. The water reservoir acts passively to transport water into the spoil of the inner pot which is subsequently used by the potted house plant. The reservoir is filled by over watering the inner pot and allowing the excess water to pass through the apertures within the inner pot. Passive transport of water from the reservoir to the soil occurs as the water saturation of the soil decreases. As a result, the soil and the potted plant remain hydrated for longer period of time as the reservoir continuously replenishes the water. The water within the reservoir can be drained through a quick connect sliding valve located on the outer pot. The quick connect sliding valve is either placed above another water receptacle or is fitted with a hose that transports the water to a drain. 1. A potted plant system comprising: 'wherein receiving of the inner pot by the outer pot creates a reservoir that is in fluid communication with the inner pot wherein fluid is passively diffused between the reservoir and the inner pot;', 'an outer pot configured to receive an inner pot wherein said outer pot holds water;'}a quick connect sliding valve positioned on the outer pot to alter water level within the reservoir; anda water level adaptor connected to the quick connect sliding valve positioned within the outer pot to maintain a predetermined water level from being displaced from within the reservoir;wherein the reservoir allows for fluid connectivity between the reservoir and the inner pot;wherein the water level adaptor provides a channel for passage of excess fluid from the outer pot upon over saturation of the reservoir.2. The potted plant system of claim 1 , further comprising an interchangeable spacer of various lengths positioned within the outer pot to increase volume of the reservoir.3. (canceled)4. The potted plant system of claim 1 , wherein quick connect sliding ...

DEVICE FOR PLANTS SURVIVAL AND GROWTH ENHANCEMENT

The disclosed device includes a water storage container, an evaporation cover, a funnel, an indicator rod and a float. The water storage container has an evaporation cover. The evaporation cover is a gas permeable structure. A funnel is connected to the evaporation cover and an indication is provided in the leakage tube of the funnel. A rod. A float is connected to the lower end of the indicator rod and the float drives the indicator rod to indicate the water level in the water storage container. The method is as follows: the water storage container and the evaporation cover are buried in the soil of the plant root, and the water is filled into the water storage container through the funnel. The water in the water container naturally evaporates into the soil through the evaporation hood, which maintains the water in the soil to maintain the survival of the plant. 1. A device for aiding plant survival , the device comprising: a water storage container , an evaporation cover , a funnel , an indicating rod and a float , wherein: the water storage container is used for storing water , the water storage container has the evaporation cover on top , the evaporation cover has a gas permeable structure , and the evaporation cover is connected to the funnel , the indicator rod is arranged in a leak tube of the funnel , a gap exists between the leak tube of the funnel and the indicator rod; a lower end of the indicator rod extends to the water storage container and is connected with a float; the float drives the indicator rod to indicate a water level inside of the water storage container.2. The device according to claim 1 , wherein an outer cover of the evaporation cover has a gauze to prevent soil or sand from entering the water storage container.3. The device according to claim 1 , wherein the funnel has an inner thread buckle claim 1 , the funnel with the inner thread buckle is provided with a filter tower claim 1 , the outer end of the filter tower has an outer thread ...

Mesh Lined Planter Box

Disclosed herein is a mesh lined planter box for use in growing of plants where mobility and/or easy removal of the plants and/or growing media is desired. The mesh lining in one example comprises a replaceable fabric mesh bag into which growing media is placed for growing of plants. Also disclosed is a trellis which may be removed from the planter box. The trellis may also include vertically adjustable cross members. A watering system is also disclosed attached to the base unit, or trellis of the planter box. The watering system in one form comprising a plurality of feed lines attached to a common main line and having valves on each feed line. 1. A fabric mesh lined planter box comprising:a. a base unit frame;b. at least one wire mesh panel attached to the base unit frame forming a base unit;c. a fabric mesh bag in contact with and vertically supported by the wire mesh panels;d. the fabric mesh bag configured to contain growing media for growing of plants therein.2. The planter box as recited in further comprising a plurality of trellis posts removably attached to and extending vertically above the base unit.3. The planter box as recited in wherein the base unit is vertically positionable along the trellis posts.4. The planter box as recited in further comprising a trellis cross member attached to laterally adjacent trellis posts.5. The planter box as recited in further comprising a watering system comprising a main line attached to the base unit and having a hose connection thereon.6. The planter box as recited in further comprising:a. a plurality of trellis posts removably attached to and extending vertically above the base unit;b. the watering system is attached to the trellis posts via a vertical adjustment system providing vertical positioning of the watering system along the trellis posts.7. The planter box as recited in further comprising:a. a water retaining drip pan removably attached to the base unit; andb. the drip pan paced below the positioned below ...

Modular plant container

A modular plant container includes a top having a plurality of inflow openings for receiving fluid. A bottom has a plurality of outflow openings for allowing the fluid to exit. A structure between the top and the bottom includes openings that allow light to reach a plant within the modular plant container. The structure forms a plurality of fluid paths. Each fluid path extends from one of the inflow openings in the top an associated outflow opening in the bottom. Each fluid path has a gap sized to allow a diverter. The diverter when present, divert fluid to a target location within the modular plant container.

AUTOMATED AEROPONIC GARDEN

System and apparatus for growing plants in an air and mist environment includes a growth unit and a power supply and support unit. The growth unit further includes an enclosure, a light source, a plant support that holds a plant, and a sprayer that sprays water and nutrients onto the plant. The power supply and support unit further includes a power converter that converts alternating current to direct current, a pump, and a processor configured to activate and deactivate the pump, and activate and deactivate the light source of the growth unit. The growth unit is connected to the power supply and support unit via a tube and a wire. 1. A system for growing plants in an air and mist environment , the system comprising: an enclosure,', 'a light source,', 'a plant support that holds a plant, and', 'a sprayer that sprays water and nutrients onto the plant; and, 'a growth unit comprising a power converter that converts alternating current to direct current,', 'a pump, and', activate and deactivate the pump, and', 'activate and deactivate the light source of the growth unit;, 'a processor configured to], 'a power supply and support unit comprisingwherein the growth unit is connected to the power supply and support unit via a tube and a wire.2. The system of claim 1 , wherein the enclosure of the growth unit further comprises:a first component that houses the light source; anda second component that houses the plant support and the sprayer,wherein the distance between the first component and the second component is adjustable.3. The system of claim 2 , wherein the growth unit further comprises a sensor that detects the height of the plant claim 2 , and wherein the processor is further configured to adjust the distance between the first component and the second component of the enclosure based on the detected height of the plant.4. The system of claim 3 , wherein the sensor comprises at least one of a camera claim 3 , an infrared sensor claim 3 , and an ultrasonic sensor.5. ...

FERTIGATION SYSTEM, FERTIGATION CONTROL SERVER, SALTS ACCUMULATION DETERMINATION METHOD, AND SOIL EC SENSOR

A fertigation system comprises: a controller that transmits sensor data to a fertigation control server, and that controls a water supply valve, a culture stock solution supply valve, and a discharge valve on the basis of received data; and a fertigation control server that, on the basis of the sensor data received from the controller, calculates control amounts for the water supply valve, the culture stock solution supply valve, and the discharge valve, and returns the control amounts to the controller. 1. A fertigation system comprising:a discharge valve configured to receive supply of culture solution from a culture solution preparing section that supplies the culture solution prepared by mixing water and culture stock solution, and control supply and interruption of the culture solution to soil where a crop is cultivated;a first irrigation tube configured to spray the culture solution on the soil, upon receiving supply of the culture solution from the discharge valve;a second irrigation tube configured to spray the culture solution on the soil, upon receiving supply of the culture solution from the discharge valve, together with the first irrigation tube;a controller configured to control, on a basis of predetermined control information, preparation of the culture solution by the culture solution preparing section and opening and closing of the discharge valve; anda control data generating section configured to calculate an opening time of the discharge valve by the culture solution preparing section, on a basis of length of the first irrigation tube, length of the second irrigation tube, and culture solution supply capacity per unit time of the discharge valve, and provide the controller with the control information including the opening time of the discharge valve.2. The fertigation system according to claim 1 , further comprising:a solar radiation sensor configured to measure strength of solar radiation;a positioning information output section configured to ...

Eavesdropper

A rainwater diverter apparatus for watering roof plants is provided comprising a collecting member for retaining rainwater; a plastic tubing attached to the collecting member; a mesh screen to filter debris from entering the plastic tubing; and a swivel adaptor connected to the plastic tubing allowing for tube rotation.

Symbiotic Aquaponic Growth System

A symbiotic aquaponic growth system is a system for growing plants. An aquaculture reservoir holds water and aquatic animals. Water and waste is transported to a filtering germination tray that serves to hold germinating seeds as well as to filter solid waste from the water. Plants are supported in a tubular growing member that rotates due to water flowing from the filtering germination tray onto the tubular growing member. The aquaculture reservoir, the filtering germination tray, and the tubular growing member are contained within an enclosure that may be closed via a lid and a shuttered door. Water is transported from the aquaculture reservoir to the filtering germination tray through a fluid distribution assembly. Water and nutrients are provided to plants in the tubular growing member by dipping the plant roots into the aquaculture reservoir as well by the water falling onto the plant roots from the filtering germination tray.

NUTRIENT DELIVERY SYSTEM

A plant nutrient delivery system comprises a sensor, an electronically actuated valve and an electronic controller. The sensor is positionable in plant growing media and operable to detect a condition of the plant growing media. The electronically actuated valve has a connection to a liquid nutrient source. The electronic controller is linked to the sensor and to the electronically actuated valve. The controller is programmed to carry out automatic demand-based nutrient delivery to the plant growing media by controlling the electronically actuated valve to turn on and off based on signals received from the sensor regarding a condition of the plant growing media, thereby causing a flow of the liquid nutrient into the plant growth media to start and to stop. Methods are also described. 1. A plant nutrient delivery system , comprising:a sensor positionable in plant growing media and operable to detect a condition of the plant growing media;an electronically actuated valve with a connection to a liquid nutrient source; and an electronic controller linked to the sensor and to the electronically actuated valve, the controller being programmed to carry out automatic demand-based nutrient delivery to the plant growing media by controlling the electronically actuated valve to turn on and off based on signals received from the sensor regarding a condition of the plant growing media, thereby causing a flow of the liquid nutrient into the plant growth media to start and to stop.2. The plant delivery system of claim 1 , wherein the liquid nutrient source comprises water claim 1 , and wherein the electronically actuated valve comprises a motorized valve connected to a source of household water.3. The plant delivery device of claim 1 , wherein the sensor is operative to sense a low water condition claim 1 , and wherein in response to the sensed low water condition claim 1 , the controller initiates a stress cycle for a predetermined duration.4. The plant nutrient system of claim 3 ...

APPARATUS FOR WATERING PLANTS

An apparatus is disclosed for watering plants received in a non-hydroponic substrate, comprising an upwardly open planter for receiving at least one plant with non-hydroponic substrate, the planter having a planting cavity enclosed by a wall and a bottom configured for receiving a plant with the substrate, further comprising a liquid container which is at least partially integrated in the planting cavity or is designed as a separate liquid container which is inserted into the planting cavity from above or is held on an outer wall of the planting cavity, the liquid container being a container which is sealed off from the outside and which has an outlet pipe which opens into a region separated from the planting cavity at a certain distance from the bottom of the planting vessel, the separated region communicating with the planting cavity via at least one connecting opening and communicating with an outer side of the planting vessel via at least one ventilation opening, in such a manner that a liquid volume is established below the outlet tube, which is limited upwardly by a liquid level predetermined by the lower end of the outlet tube, which is located at a level above the bottom of the planting cavity, so that liquid can be discharged from the liquid volume into the substrate via the at least one connecting opening. 1. An apparatus for watering plants received in a non-hydroponic substrate , comprising:a planter comprising a bottom and a surrounding wall extending upwardly from said bottom thereby defining a planting cavity for receiving at least one plant within a non-hydroponic substrate;a liquid container being sealed off against the outside and having an outlet pipe extending downwardly, said outlet pipe at its lower end forming an outlet communicating with said planting cavity via at least one connecting opening;wherein said outlet of said outlet pipe is arranged at a predetermined height of a maximum of 2 mm above said bottom of said planting cavity; and{'sup ...

Cultivation apparatus having automatic rainwater supply function

Disclosed is a cultivation apparatus having an automatic rainwater supply function, which constantly maintains a predetermined water level by filtering and storing rainwater and automatically supplies water to plants through the circulation of water, including the discharge of water whose level exceeds a predetermined level, storage of the water, and supply of the water.

WATER LEVEL INDICATOR

A water level indicator, and a self-watering planter containing same. The water level indicator having a top end and a bottom end, and a plurality of pushrods, each of the pushrods comprising an indicator flag cap and a float. The floats on each of the pushrods may each arranged such that the indicator flag cap of each pushrod is pushed towards the top end when liquid container is filled to different levels. 1. A liquid level indicator for a liquid container comprising:a top end and a bottom end; anda plurality of pushrods, each of the pushrods comprising an indicator flag cap and a float;wherein the floats on each of the pushrods are arranged such that the indicator flag cap of each pushrod is pushed towards the top end when liquid container is filled to different levels.2. The liquid level indicator of claim 1 , wherein the plurality of pushrods comprises a first pushrod and a second pushrod.3. The liquid level indicator of wherein the indicator flag cap of the first pushrod is pushed towards the top end when the liquid container is half full claim 2 , and wherein the indicator flag cap of the second pushrod is pushed towards the top end when the liquid container is full.4. The liquid level indicator of wherein the indicator flag cap of the first pushrod is pushed towards the top end when the liquid container is one-third full claim 2 , and wherein the indicator flag cap of the second pushrod is pushed towards the top end when the liquid container is full.5. The liquid level indicator of wherein the plurality of pushrods comprises a first pushrod claim 1 , a second pushrod claim 1 , and a third pushrod.6. The liquid level indicator of wherein the indicator flag cap of the first pushrod is pushed towards the top end when the liquid container is one-third full claim 5 , and wherein the indicator flag cap of the second pushrod is pushed towards the top end when the liquid container is two-thirds full claim 5 , and wherein the indicator flag cap of the third pushrod ...

Remote Control and Monitoring Apparatus and Method for Plant Growth

A remote control and monitoring apparatus and method for plant growth has an apparatus for planting and monitoring the growth of various plants, and an accompanying method lays out steps for the operation thereof. A planter body provides a plant receptacle, as well as an irrigation mechanism for watering the plants on a schedule or as otherwise defined, a plurality of sensors for monitoring the environmental conditions of for the plants and alerting the user is any parameters fall out of an acceptable range, and at least one camera to view the plant at any time as well as capture images and timelapses. 1. A remote control and monitoring apparatus for plant growth comprises:a planter body;an irrigation mechanism;a plurality of sensors;at least one camera;a fluid reservoir;a processing device;a wireless communication device;a power source;the planter body comprises a top end, a bottom end, a lateral wall and a plant receptacle;the plant receptacle being positioned within the lateral wall between the top end and the bottom end;the irrigation mechanism being connected to the planter body, wherein the irrigation mechanism is configured to distribute fluid within the plant receptacle;the irrigation mechanism being in fluid communication with the fluid reservoir;the plurality of sensors being positioned about the planter body;the power source being electrically connected to the at least one camera, the wireless communication device, and the processing device; andthe processing device being electronically connected to the at least one camera, the plurality of sensors, the irrigation mechanism, and the wireless communication device.2. The remote control and monitoring apparatus for plant growth as claimed in comprises:the planter body further comprises a divider;the divider being connected within the lateral wall between the top end and the bottom end;the fluid reservoir being positioned within the lateral wall adjacent to the bottom end; andthe fluid reservoir being ...

AUTOMATIC TIMED-RELEASE WATER-SUPPLYING FLOWERPOT

The automatic timed-release water-supplying flowerpot includes an inner container supported in an upper portion of the interior space of an outer container. Water-absorbent ropes are inserted through inlet water holes cut through the bottom wall of the inner container to absorb water from the lower portion of the interior space of the outer container and carry it to the soil and plant in the inner container. A water-refilling opening is formed between a recessed portion of the side wall of the inner container and the side wall of the outer container. The flowerpot is provided with a filtering tray or a hinged cover over the water-refilling opening to block stuffs other than water from entering the interior space of the outer container. The inner container is supported in the outer container by a horizontally extended rim or by one or more supporting legs. 1. A flowerpot for automatically supplying water to soil and plant contained therein over a period of time , the flowerpot comprising:an inner container for containing soil and plant, the inner container having a bottom wall, a side wall connected to the bottom wall, and an interior space defined by the bottom wall and the side wall, wherein a plurality of inlet water holes are formed through the bottom wall, and the side wall has a recessed portion on an outer side thereof;an outer container having a bottom wall, a side wall connected to the bottom wall, and an interior space defined by the bottom wall and the side wall;a supporting means for supporting the inner container in an upper portion of the interior space of the outer container; anda plurality of elongated pieces of water-absorbent substance respectively passing through the plurality of the inlet water holes of the bottom wall of the inner container, each piece of water-absorbent substance extending from a distance inside the interior space of the inner container and downwards into a lower portion of the interior space of the outer container;wherein the ...

Fluid Emitter concepts for feeding the root system of a plant

The present invention provides a new and useful (i) plant root feeding device (ii) plant root feeding system, (iii) method of feeding a plant, and (iv) method of manufacturing a plant root feeding device. The plant root feeding device comprises a fluid container (emitter) formed of semi permeable material that allows fluid to pass from the inside of the container to a plant root located in ground in proximity to the fluid container. The fluid container has a fluid inlet opening, and a fluid inlet tube is in fluid communication with the fluid inlet opening of the fluid container. The fluid inlet tube has a fixed, fluid sealed coupling to the fluid inlet opening of the fluid container, and the fluid container has a configuration that enables it to be located in ground in proximity to an in ground root system of a plant, and a permeability that enables fluid to pass from the inside of the container to the in ground root system of a plant in proximity to the fluid container.

ABOVE GROUND WATERING SYSTEM FOR VANDACEOUS ORCHIDS

An above ground watering system for vandaceous orchid air plants. Some embodiments may comprise one or more watering elements, such as a watering manifold that may deliver water through one or more outtake ports through water delivery members that may extend from the watering manifold and ribbons wrapped around the roots of the vandaceous orchid to deliver water and/or nutrients continuously via capillary action. 1. A jardinière suspension system for a vandaceous orchid , comprising:a first receptacle piece;a second receptacle piece coupleable with the first receptacle piece to form a complete receptacle for growing a vandaceous orchid therein, wherein the complete receptacle comprises an at least substantially non-circular elliptical or non-circular semi-elliptical shape in cross-section;at least one coupling piece for coupling the first receptacle piece to the second receptacle piece;a watering manifold having at least one watering outtake port for delivery of water to roots of the vandaceous orchid; andat least one water delivery member configured to extend from the watering manifold and be wrapped about one or more roots of the vandaceous orchid to deliver water continuously from the watering manifold via capillary action.2. The jardinière suspension system of claim 1 , further comprising a manifold coupling member configured to hang the watering manifold within or adjacent to the complete receptacle.3. The jardinière suspension system of claim 1 , wherein the watering manifold comprises a flexible synthetic material configured to compressively fit within the complete receptacle.4. The jardinière suspension system of claim 1 , wherein the watering manifold comprises a plurality of output ports.5. The jardinière suspension system of claim 4 , wherein the plurality of output ports are positioned about a bottom portion of the watering manifold.6. The jardinière suspension system of claim 1 , further comprising a stopper configured to be received in the at least one ...

SUSPENDED FLOWERPOT ADAPTED TO AUTOMATIC WATER SUPPLY

The present invention relates to a suspended flowerpot adapted to automatic water supply and, more specifically, to a plant cultivation system wherein multiple flowerpots can be suspended on a horizontal member, and the system has a water supply structure enabling automatic water supply to the flowerpots by means of buoyancy, thereby facilitating management for plant cultivation. The present invention, as described above, comprises: at least one flowerpot comprising a mounting portion that can be suspended on a horizontal member, and a body portion having a containing space therein and having a water supply hole in the lower portion thereof; a plant planting portion having an open supper portion through which soil and plants are contained therein, the planting portion being contained in the flowerpot; and a water supply portion having a water storage space for storing water supplied from the outside, having a drain hole formed in the lower portion of the water storage space such that a water supply hose connected to the water supply hole is mounted therein, and having a buoyancy opening/closing portion driven by buoyancy according to the water level, thereby opening/closing the water supply hole. 1. A suspended flowerpot adapted to automatically supply water , comprising:{'b': 10', '12', '80', '11', '11, 'i': 'a', 'at least one pot which has a mounting part suspended from a horizontal member installed at substantially the same height, and a main body that has an accommodation space therein and is provided with a water supply hole on a lower portion thereof;'}{'b': 20', '10', '11, 'i': 'a;', 'a planting member that has an open upper portion through which soil and a plant are received and is made of a water-absorbable material, a lower portion of which is accommodated in the pot to be arranged at a lower position than the water supply hole and'}{'b': 40', '41', '70', '11', '42', '43, 'i': 'a,', 'a water supply member that has a water storage space to store water ...

PLANTING SYSTEM FOR OPTIMIZATION OF PLANT GROWTH

A planting system according to the present disclosure includes a pot configured to contain a planting medium, and an irrigation ring configured to be inserted within the pot and to irrigate the planting medium. The irrigation ring is an annular body including a first planar wall defining a first set of outlet openings, a second planar wall intersecting the first planar wall at a vertex and defining a second set of outlet openings, a third set of outlet openings formed along the vertex. The size, positions, and geometry of the outlet openings are selected so that water ejected from the ring saturates the planting medium substantially evenly throughout an annular wet zone in the top surface of the planting medium, while leaving dry zones in the center and the outer perimeter of the pot. 1. An irrigation ring comprising:an annular body includinga first planar wall defining a first set of outlet openingsa second planar wall intersecting the first planar wall at a vertex and defining a second set of outlet openings;a third set of outlet openings formed along the vertex.2. The irrigation ring according to claim 1 , wherein the annular body comprises:a lower portion including the first and second planar walls; anda cover secured to the lower portion, the cover including an inlet opening.3. The irrigation ring according to claim 1 , wherein each of the outlet openings is configured as a bore having a substantially triangular cross-section.4. The irrigation ring according to claim 3 , wherein:the cross-section of each of the outlet openings in the first and second planar walls is substantially a right triangle; andthe cross-section of each of the outlet openings in the vertex is substantially an isosceles triangle.5. The irrigation ring according to claim 3 , wherein:each of the planar walls has an inner surface and an outer surface;each outlet opening in each planar wall has an entrance end at the inner surface of the planar wall and an exit end at the outer surface of the ...

PLANT POT INSERT

A plant pot insert includes a water filling chamber having a fill opening to receive water, a water outlet to provide water to a water reservoir, and an overflow conduit to discharge excess water through a weep hole on a sidewall of the plant pot. The water reservoir provides water to a root system of a plant to be grown in the plant pot by capillary action. A water level sensing unit detects a water level of the water reservoir. 1100020002140. A plant pot insert () for providing water to plants grown in a plant pot () having a weep hole () comprising:{'b': 1110', '1120', '1220', '2112', '2000, 'a water filling chamber () having a fill opening () to receive water and a water outlet () to discharge water to a water reservoir () of a plant pot ();'}{'b': 1230', '1110', '1220, 'an overflow spout () fixedly connected to the water filling chamber () and disposed above the water outlet ();'}{'b': 1600', '1220', '1220', '2112', '2000', '1110', '2112, 'a water permeable separator () substantially covering the water outlet () and disposed between the water outlet () and the water reservoir () of the pot () to facilitate gravity flow of water between the water filling chamber () and the water reservoir (); and'}{'b': 190', '1110, 'a water level sensing unit () to detect a water level of the water filling chamber (),'}{'b': 1230', '2140, 'wherein the overflow spout () is constructed to be connected to the weep hole (), and'}{'b': 2000', '1230', '2140, 'wherein excess water in the plant pot () flows through the overflow spout () and out of the weep hole ().'}210001110. The plant pot insert () of claim 1 , wherein the water filling chamber () comprises:{'b': '1100', 'an upper chamber (); and'}{'b': '1200', 'a lower chamber (),'}{'b': 1100', '1120, 'wherein the upper chamber () includes the fill opening (), and'}{'b': 1200', '1220', '1230, 'wherein the lower chamber () includes the water outlet () and the overflow spout ().'}31000130011001200. The plant pot insert () of claim 2 , ...

AIR FRESHENING SYSTEM AND DEVICE

An air freshening system, including: an air compressor, for flowing air; a water inlet, for supplying water; a central pipe, for receiving the air from the air compressor, and for receiving the water from the water inlet; and a plurality of end devices, each including: a water dripper, including an inlet, for communicating with the central pipe; a filter, for filtering the air; and an outlet, for supplying filtered air, thereby allowing cleaning the filters of the plurality of end devices by supplying the water thereto. 1. An air freshening system , comprising:an air compressor, for flowing air;a water inlet, for supplying water;a central pipe, for receiving said air from said air compressor, and for receiving said water from said water inlet; anda plurality of end devices, each comprising:a) a water dripper, comprising an inlet, for communicating with said central pipeb) a filter, for filtering said air; andc) an outlet, for supplying filtered air,thereby allowing cleaning said filters of said plurality of end devices by supplying said water thereto.2. An air freshening system according to claim 1 , wherein said water is further supplied for plant irrigation.3. An air freshening system according to claim 1 , further comprising:plants, for further cleaning said filters.4. An air freshening system according to claim 1 ,wherein said filtered air is supplied for a member selected from a group consisting of. room air freshening, air freshening to a ground.5. An air freshening device claim 1 , comprising:a water dripper, comprising an inlet, for supplying water and air;a filter, for filtering said supplied air; andan outlet, for supplying filtered air,thereby allowing cleaning said filter by supplying water thereto.6. An air freshening device according to claim 5 , further comprising:a packaging, for directing said supplied air and said supplied water from an outlet of said water dripper, through said filter to said outlet of said air freshening device.7. An air ...

RICE SEEDLING SUBSTRATE AND PREPARATION METHOD THEREOF

The present invention relates to a rice seedling substrate and a preparation method thereof, which is of the technical field of rice planting. The rice seedling substrate according to the invention was prepared from the raw materials includes the following by volume: 40-60% of dredging sediment, 30-50% of vegetable straw, and 10-30% of hickory shell. The rice seedling substrate according to the invention can not only turn waste into treasure to improve the recycling rate of sediment and agricultural and forestry waste resources, but also save the limited cultivated soils, reduce the production cost of rice seedling substrate, and promote the healthy and sustainable development of rice planting. Therefore, The inventive substrate has significant benefits in terms of economics, sociology and ecology. 1. A rice seedling substrate , which is prepared from the raw materials comprising the following by volume: 40-60% of dredging sediment , 30-50% of vegetable straw , and 10-30% of hickory shell.2. The rice seedling substrate according to claim 1 , wherein the dredging sediment is a dredging sediment treated by pressure filtration dehydration.3. The rice seedling substrate according to claim 2 , wherein the dredging sediment treated by pressure filtration dehydration has a moisture content of less than or equal to 70% claim 2 , and has also been crushed and passed through a sieve having a mesh diameter of 0.5 cm.4. The rice seedling substrate according to claim 1 , wherein the vegetable straw comprises Cruciferae vegetable straw.5. The rice seedling substrate according to claim 1 , wherein the vegetable straw has a moisture content of less than or equal to 65% claim 1 , which has been crushed and passed through a sieve having a mesh diameter of 0.5 cm.6. The rice seedling substrate according to claim 1 , wherein the hickory shell has a moisture content of less than or equal to 30% claim 1 , which has been crushed and passed through a sieve having a mesh diameter of 0.5 cm. ...

ABOVE GROUND GARDENING SYSTEMS AND METHODS

An above ground garden system and method utilizing: (i) a garden bed structure that is consistently sloped, curved inwardly toward the bottom of the bed (e.g, barrel shaped) which facilitates uniform water and air flow to the lowest region of the bed and avoids corners that will otherwise isolate regions of soil from aeration, water flow, and general gardening accessibility; (ii) a simple stand to elevate the entire bed of the garden off of a ground surface, particularly a single leg or pole stand that increases accessibility, and minimizes obstruction, to the area below the bed (e.g., easier mower access to lawn surface below bed); (iii) a curved trellis loop system that is designed for easy installation and utilization as vertical supports for climbing plants, which are stronger and more durable because each end of the loop system is secured to the bed or an attachment thereto, and which system does not occupy space within the soil of the garden bed nor require soil penetration or compaction in order to provide strength and support; (iv) detachable components within the trellis loop system so that a winter solar cap may be utilized over a base portion of the trellis loop system to allow for gardening beyond peak growing seasons. 1. An above ground gardening system comprising ,a singular rod extending upwardly and connected to the bottom of a gardening bed at its midpoint;the gardening bed comprising (i) a half-barrel shaped trough wherein the longer sides of the bed slope downwardly toward the bottom of the bed and the shorter sides are generally not sloped relative to a vertical plane, and (ii) a support structure for connecting the rod to the sloped walls of the bed so that the bed is supported, balanced and permitted to move rotationally along the axis of the rod;a trellis loop system, wherein (i) each short side of the bed has attached to it a base trellis loop that connects to the two corners on each short side to form a egg-shaped base loop, (ii) each base ...

SYSTEM AND METHOD FOR AUTOMATED PLANT MAINTENANCE AND COMMUNICATION ALERTS

A system for automated plant condition notification, detection, and watering to improve plant growth and maintenance including a computing unit, an optical sensor, a soil moisture sensor, a water tank level sensor, a pump, and a computing unit. The computing unit includes a memory and a processor that receives a first input indicative of a user identifier and a communication type, a second input indicative of a plant type, a soil moisture input, a water level input, and an optical sensor input. The processor also determines a water pump initiation threshold and a water pump completion threshold based on one or more of the plant type, the optical sensor input, or the soil moisture input and determines a plant maturity optical value based on the plant type. Additionally, the processor transmits a water pump initiation, a water pump completion signal, and a notification via a selected communication method. 1. A system for automated plant condition notification , detection , and watering to improve plant growth and maintenance , the system comprising:a computing unit,an optical sensor communicably connected to the computing unit,a soil moisture sensor communicably connected to the computing unit,a water tank level sensor communicably connected to the computing unit,a pump communicably connected to the computing unit, receive a first input indicative of a user identifier and a communication type;', 'receive a second input indicative of a plant type;', 'receive a soil moisture input from the soil moisture sensor indicative of a soil moisture level;', 'receive a water level input indicative of a water level reading from the water tank level sensor;', 'receive an optical sensor input from the optical sensor,', 'determine a water pump initiation threshold and a water pump completion threshold based on one or more of the plant type, the optical sensor input, or the soil moisture input;', 'determine a plant maturity optical value based on the plant type;', 'transmit a water ...

PLANT CULTIVATION APPARATUS AND WATER SUPPLY CONTROL METHOD THEREFOR

The present disclosure relates to a plant cultivation apparatus and a method for controlling water supply in the plant cultivation apparatus. The plant cultivation apparatus of the present disclosure may supply feed water to a bed according to whether or not the feed water supplied to the bed to cultivate plants remains to prevent the feed water from being supplied more than necessary. 1. A plant cultivation apparatus comprising:a cabinet having a cultivation room accommodating at least one bed and an opening/closing door for opening and closing an open front surface of the cultivation room, plants being cultivated in the cultivation room;a machine chamber frame configured to provide a machine chamber having a space independent of the cultivation room;A water supply module provided in the cultivation room to supply feed water to the bed;a residual water detection sensor configured to detect whether residual water of the feed water supplied to the bed is present; anda controller configured to control the water supply module based on a residual water detection signal received from the residual water detection sensor.2. The plant cultivation apparatus of claim 1 , wherein the bed has a depression which is formed to be recessed from an inner bottom of the bed to receive and store the feed water by the water supply module.3. The plant cultivation apparatus of claim 2 , wherein the bed is formed with a sensing protrusion which is formed to protrude from a bottom surface of the depression claim 2 , the sensing protrusion having a upper surface positioned higher than the bottom surface of the depression and lower than a bottom surface of the bed.4. The plant cultivation apparatus of claim 3 , wherein the residual water detection sensor detects whether residual water is present on an upper surface of the sensing protrusion.5. The plant cultivation apparatus of claim 4 , wherein the residual water detection sensor transmits a residual water detection signal corresponding ...

BUCKET CONVERSION SELF-WATERING PLANTER

This one-piece drop in device converts buckets into self-watering container systems used for growing plants. The device produces a bottom water reservoir and an upper area for soil. The device has a plurality of holes in its sides that allow soil to take up water by capillary action. The device can be manufactured using recycled materials and promotes going green. The pre-manufactured bucket will provide the side walls needed to stabilize and strengthen the drop in device. 1. This one-piece drop in device will convert an existing bucket into a self-watering planter. Eliminating the need of daily watering which contributes to water conservation.2. The solid top rim as shown in will create an enclosure to reduce the evaporation of reservoir water directly into the atmosphere. This eliminates the need of daily watering of plants.3. The ¾ inch hole shown in is for a tube of any material or funnel to fill the water reservoir without removing the plant.4. The solid molded bottom of any shape (example: star , circle , crescent , octagon) will set on the bottom of a bucket to separate soil from a water reservoir allowing water circulation and maintain soil weight of the core.5. The sides walls of this device as shown in creates an inner core of a minimum of 4 inches tall with a maximum that could differ depending on design shape. The shape must maintain a soil height that will create an open space for a bottom reservoir to allow circulation of water.6. The walls have a plurality of holes shown in that allows soil to take up water by capillary action.7. The capillary action creates the wicking of water to travel upward to the roots of the plant as needed. Maintaining the proper moisture level a plant needs to grow.8. That this device can be manufactured using recycled materials that will benefit in reduction of waste taken to landfills. This provides a green way to recycle existing pre-manufactured buckets into a self-watering planter.9. This device will allow a novice ...

PLANT CULTIVATING APPARATUS

A plant cultivating apparatus according to an embodiment of the present disclosure includes a main body, a shelf, a cultivation bed, and a cultivation container. The shelf is disposed in the cultivation space formed in the main body, the cultivation bed is disposed on the shelf, and the cultivation container is seated in the cultivation bed. The cultivation bed includes a water supply part for receiving a predetermined amount of water. In addition, the shelf includes a water level sensor. The water level sensor is positioned vertically below the water supply part to measure an amount of water stored in the water supply part. 1. A plant cultivating apparatus comprising:a main body that defines a cultivation space and includes a door configured to open or close the cultivation space;a shelf that is disposed at the cultivation space and includes a water level sensor;a cultivation bed that is disposed on the shelf, that defines a receiving space, and that includes a water supply part that is disposed at a bottom surface of the cultivation bed and configured to store water; anda cultivation container that is disposed above the water supply part of the cultivation bed,wherein the water supply part of the cultivation bed is positioned above the water level sensor of the shelf, andwherein the water level sensor is configured to measure an amount of the water stored in the water supply part of the cultivation bed.2. The plant cultivating apparatus of claim 1 , wherein a bottom surface of the water supply part and the water level sensor are spaced apart from each other.3. The plant cultivating apparatus of claim 1 , further comprising:an elastic member that is disposed between the water level sensor and the shelf and supports the water level sensor on the shelf,wherein the elastic member is configured to bias the water level sensor against the shelf such that, based on the bottom surface of the water supply part of the cultivation bed coming into contact with the water level ...

VERTICAL FARMING SYSTEMS AND METHODS

An automatic vertical farming system may include a frame defining at least one growth area and configured to support a plurality of vertical plant growth structures within the at least one growth area. The system may include at least one light, at least one liquid conduit, and at least one gas conduit. The system may include at least one robot disposed on a top side of the frame and movably supported by the frame. The at least one robot may include at least one tool configured to manipulate the plurality of vertical plant growth structures. The system may include a control system including at least one processor configured to automatically control illumination by the at least one light, liquid flow through the at least one liquid conduit, gas flow through the at least one gas conduit, and operation of the at least one robot. 1. An automatic vertical farming system comprising:a frame defining at least one growth area and configured to support a plurality of vertical plant growth structures within the at least one growth area;at least one light coupled to the frame and configured to illuminate the at least one growth area;at least one liquid conduit coupled to the frame and configured to supply liquid to and from the at least one growth area;at least one gas conduit coupled to the frame and configured to supply gas to and from the at least one growth area;at least one robot disposed on a top side of the frame and movably supported by the frame, the at least one robot comprising at least one tool configured to manipulate the plurality of vertical plant growth structures; anda control system including at least one processor configured to automatically control illumination by the at least one light, liquid flow through the at least one liquid conduit, gas flow through the at least one gas conduit, and operation of the at least one robot.2. The system of claim 1 , further comprising at least one of the plurality of vertical plant growth structures.3. The system of claim 2 ...

AGRICULTURAL APPARATUS AND METHOD

A conveyor system () moves vertical poles () in an agricultural facility between a growing area () and a workstation (W). Each pole carries plant growing containers () at multiple levels (H-H). An irrigation reservoir () may be mounted atop each pole. Irrigation lines (-) from the reservoir may be individually metered () at each level to compensate for differing water pressure with height. Sensors () in the reservoir and at each level of the poles may provide a controller () with data input. The controller may impose different growing conditions in different areas of the facility, including vertically different grow areas (A, B), and controls pole movements and locations selectively to provide a sequence of poles at the workstation ready to harvest on a demand schedule. The workstation may have multiple heights (W, W, W) for tall poles that increase plant density per facility footprint. 1. Agricultural apparatus comprising:multiple vertical poles suspended from a movable conveyance of a conveyor system;an irrigation reservoir mounted on each respective vertical pole;wherein each reservoir provides time-release gravity-feed irrigation to plant growing containers at multiple heights on the respective pole via an irrigation line or lines with outlet metering that compensates for different water pressures at the multiple heights on the pole.2. The agricultural apparatus of claim 1 , further comprising:a sensor in each reservoir that communicates a liquid level to an electronic controller of the agricultural apparatus; andan irrigation refill outlet at a location on the conveyor system or on a support structure thereof;wherein the control system senses depletion of each reservoir, moves the respective pole to which the reservoir is attached to the refill outlet via the conveyor system, and opens a valve to refill the reservoir as needed.3. The agricultural apparatus of claim 1 , wherein the conveyor system moves the vertical poles between a growing area and a workstation ...

HYDROPONIC GROWING UNIT

A hydroponic growing apparatus may include a housing, a water reservoir, and a lighting system. The housing may include a bottom surface and an open top surface. The apparatus may also include a pump, the pump comprising an inlet and an outlet, and a sprayer coupled to the outlet of the pump. Also, the apparatus may include a support structure configured to fit into an open top surface of the housing. The support structure may define a plurality of openings. The apparatus may include at least one cover plate configured to fit over the support structure in the open top surface of the housing. 1. A hydroponic growing apparatus , comprising:a housing;a water reservoir positioned in the housing and comprising a bottom surface and an open top surface;a support structure configured to fit into the open top surface of the housing and defining a plurality of openings;at least one cover plate configured to fit over the support structure in the open top surface of the housing, the at least one cover plate comprising a plurality of cut-outs corresponding to the plurality of openings of the support structure;a pump positioned in the water reservoir, the pump comprising an inlet and an outlet;a sprayer coupled to the outlet of the pump; anda lighting system coupled to the housing.2. The hydroponic growing apparatus of claim 1 , wherein a fixed distance between a lower surface of the lighting system and an upper surface of the at least one cover plate is in a range of 14 to 18 inches.3. The hydroponic growing apparatus of claim 1 , wherein the lighting system includes a control board claim 1 , a lens claim 1 , and a lighting panel including lights.4. The hydroponic growing apparatus of claim 1 , wherein the hydroponic growing apparatus is configured to turn the lighting system on for a period of time each day claim 1 , the period of time being in a range of 12 to 16 hours.5. The hydroponic growing apparatus of claim 1 , further comprising a power source positioned in the housing ...

Modular Aquaponics System

The invention provides an improved modular aquaponics system for growing plants and fish together in a closed system whereby fish tank waste water is utilized by the plants as a source of fertilizer, thereby clarifying the water before returning it to the fish tank. The improvements comprise an improved plant grow tray, a prefabricated, “snap-together” grow tray system, an energy-efficient calibrated air displacement pump and a fish waste water clarifier having a baffle. 1a. a fish tank containing water and aquatic animals, and aeration devices and said fish tank covered with exterior insulation for fish healthb. a submerged water pump for moving said water containing fish effluent and solid waste from said fish tank said water pump operates by applying air pressure periodically to said water pumpc. a water settling device for separating said water and said fish effluent from said solid waste said water settling device contains a perforated baffle for reducing water velocity said water settling device accumulates said solid waste for removal from said deviced. a transport device for moving said fish effluent from said water settling device, and conveying said water containing said fish affluent to a grow traye. said grow tray containing medium for growing said plants said grow tray constructed of a variety of materials said grow tray varies in sizef. an automatic valve device for regulating water level in said grow tray said automatic valve device is preset for said water level in said grow tray.. A system for conveying water for growing edible plants and aquatic animals comprising by means of: The present invention relates to agriculture and, more particularly, to the farming of aquatic animals and the use of their waste as fertilizing nutrients to grow vegetables in a closed loop re-circulating system.In the twenty-first century, the world faces an environmental crisis, issues related to climate change (drought and flooding as well as record-setting heat waves) ...

Liquid supply of a block storage element

Block storage element and method for supplying liquid to a block storage element. The block storage clement has an overflow and the method includes introducing the liquid into an overflow distributor with a distributor limit. The liquid is throttled by at least one passageway arranged in the distributor limit and gets into a tub area of the block storage element, and the liquid that is not drained by way of the at least one passageway is discharged via. the overflow.

WATERING SYSTEM FOR PLANTS

A watering system includes a bottle unit or a water level control unit which has a float member to control the water level of the tank in a planting hole. The float member controls the operation of the water inlet valve and the water level in the bottle unit so as to control the amount of water that the planting hole provides to the soil outside the planting hole without using electricity. The plants are properly watered automatically all day long. The water permeates into the soil outside the planting hole to water the plants that are planted in a larger area. The watering system is suitable for watering the plants in a large area or in pots. 1. A watering system comprising:{'b': 1', '11', '1', '12', '11', '1, 'at least one planting hole () and a tank () located in each of the at least one planting hole (), a water pipe () located in the tank () and located at an inner end of the at least one planting hole ();'}{'b': 2', '1', '21', '22', '21', '211', '23', '21', '211', '23', '22', '24', '12', '24', '22', '25', '22', '24', '25', '21', '21, 'a water level control unit () located beside the planting hole () and having an inlet valve () and a tubular member (), the inlet valve () having an inlet end (), a guide pipe () having a first end connected to the inlet valve () and communicating with the inlet end (), a second end of the guide pipe () connected to the tubular member () which has an outlet (), a first end of the water pipe () connected to the outlet () of the tubular member (), a float member () located in the tubular member () and located above the outlet (), the float member () connected with the inlet valve () and controlling the inlet valve ();'}{'b': 13', '12', '12', '121', '11', '1', '13', '14, 'an observation member () connected to and communicated with the water pipe (), the water pipe () having at least one hole () which communicates with the tank () of the planting hole (), the observation member () having a float tube ();'}{'b': 2', '28', '282', '27', ...

AUTONOMOUS IRRIGATION DEVICE, IN PARTICULAR FOR POT PLANTS

This device comprises: a main body (); a tip () adapted to be stuck into a plant substrate; an end fitting () opening upward from the body, adapted to tightly and removably cooperate with an opening of a water tank (B), an axis of the end fitting being substantially aligned with a median axis of the tip; humidity detection elements () provided on the tip; an irrigation control circuit () connected to said detection elements; and an irrigation valve () provided in the main body, adapted to control a circulation of water between the end fitting () and a water outlet passage () in response to instructions coming from the irrigation control circuit. 2200. The device of claim 1 , wherein the blade-shaped part () is a printed circuit.3200700. The device of claim 2 , wherein the printed circuit () carries the irrigation control circuit ().4110200. The device of claim 1 , wherein the tip includes a stiffening element () fastened to the blade () on the two faces thereof.5100110. The device of claim 4 , wherein the main body () and the stiffening element () define together an external contour generally continuous and widening from the bottom to the top.6600700100. The device of claim 1 , further comprising a photoelectric sensor () connected to the irrigation control circuit () and arranged in an upper part of the main body ().7406402408. The device of claim 1 , wherein the water outlet passage () opens at an inclined upper surface () of the main body claim 1 , vertically aligned with a point-shaped low end () of said upper surface.8404405. The device of claim 1 , wherein the end fitting () comprises a cylindrical part made of an elastomeric material claim 1 , having at least two different diameters to tightly fit into the mouth of a standard disposable bottle and provided with a water inlet orifice ().9406404304. The device of claim 8 , wherein the water outlet passage () is arranged in the vicinity of a base of said end fitting () and the valve has a dosing part () arranged ...

Hydroponic Growing System, Planting Tower and Method

A hydroponic growing system is provided having a growing pot and a root distribution plate. The growing pot has a wall portion defining an elevationally-extending concavity. The root distribution plate has an outer periphery configured to be fitted in substantially level conformity within the concavity at a position elevated from a bottommost portion of the concavity and an array of raised root barriers subdividing a top surface of the root distribution plate into a plurality of distinct root beds. A method is also provided. 1. A hydroponic growing system , comprising:a growing pot having a wall portion defining an elevationally-extending concavity; anda root distribution plate having an outer periphery configured to be fitted in substantially level conformity within the concavity at a position elevated from a bottommost portion of the concavity and an array of raised root barriers subdividing a top surface of the root distribution plate into a plurality of distinct root beds.2. The growing system of claim 1 , wherein the pot comprises a side wall and a bottom wall configured as a surface of revolution about a central axis.3. The growing system of claim 2 , wherein the bottom wall is cylindrical and the root distribution plate is cylindrical with a central cylindrical aperture.4. The growing system of claim 3 , wherein the root distribution plate includes a circumferential array of equidistant spaced apart and radially extending raised ribs projecting upwardly from a top surface of the cylindrical root distribution plate communicating along an outer periphery with an outermost cylindrical raised rib and along an inner periphery with an innermost cylindrical raised rib about the cylindrical aperture.5. The growing system of claim 4 , further comprising a plurality of drainage channels provided in one of the outermost cylindrical raised rib and the innermost cylindrical raised rib.6. The growing system of claim 1 , wherein each raised root barrier comprises a radial ...

MIXED MEDIA VERTICAL FARMING

A mixed media farm may include a tray for holding water at a prescribed water level. A cell may be placable on the tray, with the cell defining a cavity and having at least one opening in communication with the cavity. The cell may be sized such that when the cell is placed on the tray, a lower portion of the cell resides below the prescribed water level and an upper portion of the cell resides above the prescribed water level. Soil may be in the cavity, with the soil having a lower portion below the prescribed water level, and an upper portion above the prescribed water level when the cell is placed in the tray. A plurality of seeds may be planted in the upper portion of the soil, with the plurality of seeds defining a seed density of greater than 5 seeds per square inch. 1. A mixed media farming method comprising the steps of:planting a plurality of seeds in soil located in a cell, the plurality of seeds being arranged within the cell such that the plurality of seeds define a seed density of at least 5 seeds per square inch;partially submerging the cell in water retained within a tray such that a lower portion of the cell is submerged under the water and an upper portion of the cell extends above the water, the cell having at least one opening submerged in the water to allow a lower portion of the soil to become saturated by the water;directing light emitted from an electronic light source toward the soil; andallowing the plurality of seeds to sprout and grow leaves which substantially cover the soil to substantially block light emitted from the electronic light from penetrating through on the soil for mitigating algae growth.2. The method recited in claim 1 , further comprising the step of aerating the soil to mitigate anaerobic bacteria growth and facilitate growth of aerobic bacteria.3. The method recited in claim 1 , wherein the step of partially submerging the cell in water includes at least partially filling the tray with water claim 1 , and then placing the ...

SOIL WATER POTENTIAL EFFECTOR APPARATUS AND USES THEROF

An apparatus for effecting water potential in a water-containing media comprising a water-permeable housing, a volume changing material that can retain water, a compressible insert and a receiver for receiving and transducing a signal, is provided. 1. An apparatus comprising:a. a housing comprising at least one portion that is water permeable;b. a volume changing material (VCM) capable of retaining water, wherein said VCM increases or decreases its volume in response to increased or decreased water concentration respectively, and wherein said VCM is in direct contact with an inner surface of said at least one water permeable portion of said housing;c. a compressible insert configured to maintain at least a predetermined inner pressure within said apparatus; andd. a receiver configured to engage the VCM, compressible insert or both at or above a predetermined threshold of water concentration and configured to transduce a signal when engaged, when disengaged, or both.2. The apparatus of claim 1 , wherein said VCM fills between 10-90% of the volume of space inside said housing.3. The apparatus of claim 1 , wherein said compressible insert fills any space inside said housing not filled by said VCM.4. The apparatus of claim 1 , wherein said receiver is configured to translate a force applied by said VCM claim 1 , compressible insert or both into an electrical or mechanical signal.5. The apparatus of claim 1 , wherein said receiver comprises a pressure sensor claim 1 , a traveling sensor claim 1 , a force sensor claim 1 , a valve claim 1 , or a gauge.6. The apparatus of claim 1 , wherein said water permeable portion comprises a porous material.7. The apparatus of claim 6 , wherein said porous media is a natural claim 6 , synthetic claim 6 , or a semi-synthetic membrane.8. The apparatus of claim 1 , wherein the compressible insert comprises a gas-filled inner volume.9. The apparatus of claim 1 , wherein the VCM comprises a hydrogel.10. The apparatus of claim 1 , wherein ...

Intelligent agricultural systems

An agricultural data collection system may include a plurality of self-powered agricultural data collection devices disposed across an agricultural area. The agricultural data collection system may also include a plurality of self-powered agricultural output devices that control the distribution of one or more agricultural resources across at least a portion of the agricultural area. The plurality of self-powered agricultural data collection devices and the plurality of self-powered agricultural output devices may communicate wirelessly to selectively implement an agricultural management method that uses data collected by the self-powered agricultural data collection devices to provide agricultural resources where needed within localized agricultural areas within a larger agricultural area. At times, the agricultural management method may include an adaptive method that employs machine learning principles to optimize agricultural production within the agricultural area. 1. An agricultural resource management system , comprising:a plurality of self-powered data collection devices disposed across at least a portion of an agricultural area, each of the self-powered data collection devices including:an energy collector;an environmental sensor;a communication interface;a control circuit communicably coupled to the environmental sensor; collect environmental data within a localized agricultural area proximate the self-powered data collection device via the environmental sensor;', 'exchange at least a portion of the collected environmental data with at least some of the remaining plurality of self-powered data collection devices;', 'cooperatively monitor and control distribution of an agricultural resource across at least a portion of the agricultural area that includes the respective localized agricultural area proximate the respective self-powered data collection device., 'a storage device communicably coupled to the control circuit, the storage device including machine- ...

Indoor Plant Growing System

An indoor plant growing system that includes a casing subsystem, a containers chamber, a water containers subsystem, an ultrasonic humidifier, a ventilation system and a lighting system. The casing subsystem includes a roots chamber, a plants chamber and a partition element that separates the roots chamber from the plants chamber. The water containers subsystem includes a humidifying tank, a terminal connection to a main water thank and a water pump that pumps water from the main water thank to the humidifying tank. The ultrasonic humidifier is positioned inside the humidifying tank. The system may include a fertilizer spray system or a cooling system for cooling the water in humidifying tank. The system may include a rotational mechanism which is designed to rotate the casing subsystem so that the plants will grow downward. 1. An indoor plant growing system , comprising: a casing subsystem , a containers chamber , a water containers subsystem , an ultrasonic humidifier , a ventilation system and a lighting system;wherein the casing subsystem includes a roots chamber, a plants chamber and a partition element that separates the roots chamber from the plants chamber; wherein the partition element is deigned to block mist from moving from the roots chamber to the plants chamber; wherein the partition element includes a hole through which stems of plants can pass;wherein the water containers subsystem includes a humidifying tank, a terminal connection to a main water thank and a water pump that is designed to pump water from said main water thank to the humidifying tank; wherein the water containers subsystem is positioned inside the containers chamber;wherein the ultrasonic humidifier is designed to be positioned inside the humidifying tank; wherein the ventilation system includes a filter and a filter pump, said ventilation system is designed to filter air inside the plant chamber; and wherein the lighting system comprises one or more light bulbs that are positioned ...

Self-Watering Planter

A self-watering planter device having an integral internal irrigation system, and method of watering allowing water to be supplied by means of standard garden water hose and existing water faucet. A plurality of said self-watering planters capable of being daisy-chained in a serial configuration to allow a single source of water from a standard water faucet and standard garden water hoses to provide irrigation water to all of said plurality of self-watering planters. 1. A self-watering planter for watering plants in said planter comprising:a) a planter container having substantially vertical sides with a distal closed bottom end and a proximal open top end;b) an integral irrigation system comprising an internal water manifold having a water input female connector and a water exit male connector for connection of standard garden water hose, and a plurality of internal water distribution channels, each of said internal water distribution channels having a distal end connected to said water manifold and a proximal end having at least one water outlet orifice,thereby providing a self-water planter having an integral water irrigation system contained therein through which water may be supplied by a single water source by means of a standard garden water hose.2. The self-watering planter as claimed in wherein claim 1 , said planter container distal closed bottom end has at least one drainage orifice.3. The self-watering planter as claimed in wherein claim 1 , said female end of said irrigation tube is fixedly attached to said internal water manifold.4. The self-watering planter as claimed in wherein claim 1 , said female end is rotatably attached to said internal water manifold.5. The self-watering planter as claimed in wherein claim 1 , said standard garden water hose is selected from the group comprising; flexible water hose claim 1 , flexible lawn and garden irrigation pipe claim 1 , substantially rigid lawn and garden irrigation pipe claim 1 , and combinations thereof ...

Stain Proof Gardening Container

A stain-proof gardening container having a cap brace including a plurality of grooves, each groove connects to a top edge of one of a corresponding vertically oriented left side panel member, right side panel member and back panel member, a front panel member including a handle, the front panel member attaches to the left side panel member, a floor panel including a well and a plurality of grooves, each groove connects to a bottom edge of one of a corresponding vertically oriented left side panel member, right side panel member and back panel member, a housing frame formed by the cap brace, left side panel member, right side panel member, back panel member, front panel member and floor panel, the housing frame including an interior cavity, a gardening collection receptacle for receiving and storing at least one gardening component, the gardening collection receptacle including an elastic headband located at its top region for installing the gardening collection receptacle in the interior cavity of the housing unit and a drainage aperture located at its bottom region for draining excess materials from the gardening collection receptacle and a drainage collection repository for receiving the excess materials drained from the gardening collection receptacle. The drainage collection repository including a handle for removing the drainage collection repository from the housing unit, and wherein the drainage collection repository is positioned within the well in the floor panel. 1. A stain-proof gardening container comprising:a cap brace including a plurality of grooves, each groove for receiving a top edge of a corresponding one of vertically oriented left side panel member, right side panel member and back panel member;a front panel member including a handle, the front panel member is fixedly attached to the left side panel member, and the handle allows the movement of the front panel member to an open or closed position;a floor panel including a well and a plurality of ...

Combined Intelligent Recyclable Planting Device

The invention relates to a combined intelligent recyclable planting device which includes a bracket, a plurality of planting baskets arranged on the bracket and a circulation mechanism. The bracket includes a base plate, a plurality of vertical support rods and a plurality of lateral support rods. The vertical support rod is composed of a plurality of expansion joints. The planting basket includes an outer basket disposed on the lateral support rod, and an inner basket disposed in the inner cavity of the outer basket. The circulation mechanism includes a filter control box and a water storage tank. The filter control box is provided with a filter, a first water pump, an air pump and a controller. The water tank box is provided with a float liquid level switch and a second water pump. The combined intelligent recyclable planting device has simple and reasonable structure, easy to use, convenient disassembly and assembly, and high degree of intelligence. It does not pollute the planting environment, is not limited by the light intensity of the site, and can freely change the planting area, etc. It can effectively solve the problem that vegetable cultivation is limited by the planting environment.

ATMOSPHERICALLY WATERED PLANTER

A planter wherein a water tray is positioned in the bottom of a front compartment of a housing and has a bottom surface angled downwardly to the horizontal. A water generating unit comprising a Peltier device is also mounted in the front compartment and draws air through a plurality of vertically disposed cold sink fins such that moisture in the air condenses on the fins, flows downwardly by gravity into the water tray, and then by gravity through the water tray and into the bottom of a plant container portion of the housing. 1. A planter comprising:a housing having a front compartment separated by a wall from a rear compartment, the front compartment having an open top and the rear compartment comprising a container configured to receive a plant, the housing further having a front surface comprising a perforated area;a water tray positioned in the front compartment of the housing and having a bottom surface configured to communicate with an opening in a lower end of the wall;a cover closing the front compartment and having a plurality of apertures formed therein; anda water generating device located in said front compartment and comprising a Peltier device, a fan, and a plurality of cold sink fins, the water generating device being configured to draw air through the perforated area of the housing so as to contact the cold sink fins and to expel the air out through said apertures such that water condenses on the cold sink fins and flows by gravity into said water tray, the water tray being further configured such that the water thereafter flows by gravity feed through the water tray and then through the opening in the lower end of said wall and into said container.2. The planter of wherein the plurality of cold sink fins face outwardly towards said perforated area.3. The planter of wherein the bottom surface of the water tray is angled downwardly to the horizontal in order to achieve the gravity feed of water through the tray.4. The planter of wherein the plurality ...

IRRIGATION SYSTEM FOR BONSAIS

The irrigation system for bonsais comprises a water tank, a pot inside of which a substrate for a bonsai is housed and irrigation means of the water in said tank to said substrate, characterized in that the system comprises a moisture detector arranged in said substrate, which detects the degree of moisture of the substrate and determines the activation of said irrigation means when the degree of moisture of the substrate is lower than a predetermined value. 1. An irrigation system for bonsais , comprising a water tank , a pot inside of which a substrate for a bonsai is housed and irrigation means of the water in said tank to said substrate , characterized in that the system comprises a moisture detector arranged in said substrate , which detects the degree of moisture of the substrate and determines the activation of said irrigation means when the degree of moisture of the substrate is lower than a predetermined value.2. The system according to claim 1 , wherein said irrigation means comprise one or more irrigation nozzles.3. The system according to claim 1 , wherein said irrigation means comprise an irrigation point fed by a tube from said tank.4. The system according to claim 1 , which also comprises a water level claim 1 , temperature claim 1 , light and/or environmental moisture detector.5. The system according to claim 1 , wherein said pot comprises a plurality of drainage holes arranged in the bottom and/or in the side walls.6. The system according to claim 1 , which also comprises at least one drainage point between the tank and the pot.7. The system according to claim 6 , wherein said drainage point is arranged in an inner body of said tank.8. The system according to claim 6 , wherein said drainage point defines a projection that acts as an overflow line of the water of said tank.9. The system according to claim 1 , which also comprises a base.10. The system according to claim 9 , wherein said base comprises a plurality of stones or sand.11. The system ...

Plant Water Feeder

A disclosed plant watering structure comprises of a reservoir partially filled with water, one tube supplying water from the reservoir to a watering plant, another tube which allows air to the water in the reservoir. Adjusting the distance between the end of this tube and the bottom of the reservoir, creates a balance of pressure in the system, which allows water flow into the plant only when the plant needs watering. 1{'b': '0014', 'The plant watering structure of claim [], wherein the reservoir is partially filled with water. The reservoir is closed with a lid. Air is above water in the reservoir.'}{'b': '0014', 'The plant watering structure of claim [], further comprising two tubes through the lid of the reservoir wherein the tubes have the same diameter. One tube transfers water to the plate under the watering plant, another tube provides air access to water in the reservoir.'}{'b': '0014', 'The plant watering structure of claim [], wherein the height of the plate under the plant is taller than the height difference between the level of air entrance into water and the level of water in-take in the reservoir.'}. A plant watering structure comprising: a reservoir and a potted plant connected with a tube. Not ApplicableNot ApplicableNot ApplicableThis invention pertains to the field of plant water feeding. Water provides structural support, cools plan down, and moves minerals to all the right places. When there is a lack of water, plant cells deflate, and the plant looks wilted. Plants produce cellulose that keep its shape, but it is water pressure (water flowing through a plant) that helps plants gain and retain their shape better than cellulose alone.Plant soil is like a sponge. Most houseplants like a porous soil, allowing room for water and air pockets. A plant should absorb water slowly through its roots. Different plants need varying amounts of water. Plant size also determines how much water a plant needs. In smaller pots with less soil, the soil will dry ...

AUTOMATED DRIP WATERING SYSTEM

An automatic drip watering system comprises a waterline and one or more drip watering devices. The one or more drip watering devices each comprise a valve, which is configured to open and drip irrigate an area when weight is applied to the drip watering device. In some embodiments, the one or more watering devices comprise a clip which is configured to accept one or more hanging pots and/or baskets. The clip is pulled down by the weight the hanging pots and/or baskets and the valves open in order to drip irrigate the hanging pots and/or baskets through one or more drip lines. 116-. (canceled)17. A method of drip watering comprising:a. coupling one or more drip watering devices with one or more overhead hangers;b. coupling the one or more drip watering devices with one or more waterlines; andc. adding weight to the one or more watering devices, wherein one or more valves of the one or more watering devices are configured to open and deliver water to a watering area when weight is added to the watering device.18. The method of claim 17 , wherein the watering area comprises one or more hanging pots.19. The method of claim 18 , wherein the one or more hanging pots are configured to hang on a clip of the one or more watering devices.20. The method of claim 17 , wherein the one or more watering devices are grouped into multiple zones.21. The method of claim 17 , further comprising r starting and stopping watering at a predetermined time using a timer.2229- (canceled)30. A method of drip watering comprising:a. coupling a water line with an overhead hanger; andb. delivering water to a watering area under the overhead hanger only when weight is added to the overhead hanger.31. The method of claim 30 , wherein the watering area comprises one or more hanging pots.32. The method of claim 31 , wherein the one or more hanging pots are configured to hang on a clip of the one or more watering devices.33. The method of claim 30 , further comprising starting and stopping watering at ...

AUTOMATED DRIP WATERING SYSTEM

An automatic drip watering system comprises a waterline and one or more drip watering devices. The one or more drip watering devices each comprise a valve, which is configured to open and drip irrigate an area when weight is applied to the drip watering device. In some embodiments, the one or more watering devices comprise a clip which is configured to accept one or more hanging pots and/or baskets. The clip is pulled down by the weight the hanging pots and/or baskets and the valves open in order to drip irrigate the hanging pots and/or baskets through one or more drip lines. 121-. (canceled)22. A watering valve comprising:a. a valve body; andb. a hanger for hanging an object, wherein the hanger is movable between a closed position and an open position, wherein the valve is configured to supply water to the object when the hanger is in the open position.23. The watering valve of claim 22 , wherein the object comprises one of a hanging pot and a hanging basket.24. The watering valve of claim 23 , wherein the one of the hanging pot and the hanging basket is configured to hang on a clip of the hanger.25. The watering valve of claim 22 , comprising a coupling device for coupling the watering valve with an additional object.26. The watering valve of claim 25 , wherein the additional object comprises one of a frame claim 25 , a post claim 25 , a hook claim 25 , a vertical pole claim 25 , and a horizontal pole.2729-. (canceled)30. The watering valve of claim 22 , wherein the valve body is configured for coupling to a water line.31. A watering valve comprising:a. a valve body; andb. a hanger for hanging an object, wherein the hanger is movable from a closed position to an open position when the object is hung on the hanger, wherein the valve is configured to supply water to the object only when the hanger is in the open position.32. The watering valve of claim 31 , wherein the object comprises one of a hanging pot and a hanging basket.33. The watering valve of claim 32 , ...

Plant Pot Wick Insertion Hardware and Method

A device and method for inserting a wick in a plant pot and retaining the wick in a desired position. A wick retainer is provided. This device very generally resembles a large nail, having a head at its first end and an elongated column extending therefrom. The far end of the column opens into a retention notch configured to secure a wick at any point along its length. A unidirectional latch is located proximate the head. The head also contains one or more receivers configured to retain the free ends of the wick. 1. A wick retainer configured to insert and retain a wick in a hole through a plant pot , said wick having a central portion , a first free end , and a second free end , comprising:a. a column, having a first end and a second end;b. said first end of said column including a retention notch configured to engage said central portion of said wick;c. said second end of said column including a unidirectional latch configured to engage said hole and retain said wick retainer within said plant pot; andd. said second end of said column including a head and a first encircling arm defining a first receiver, with a first gap proximate said first encircling arm allowing said first free end of said wick to enter said first receiver.2. A wick retainer as recited in claim 1 , further comprising a second encircling arm claim 1 , with said first gap lying between said first encircling arm and said second encircling arm.3. A wick retainer as recited in claim 2 , further comprising:a. a third encircling arm;b. a fourth encircling arm;c. a second receiver defined by said third encircling arm, said fourth encircling arm, and said head; andd. a second gap between said third and fourth encircling arms.4. A wick retainer as recited in claim 1 , wherein said unidirectional latch configured to engage said hole comprises:a. a first flex arm on a first lateral side of said column;b. a second flex arm on a second and opposite lateral side of said column; andc. wherein each of said flex ...

Intelligent Web-Enabled Plant Growing System and Method of Growing Plant

An intelligent web-enabled plant growing system controls environmental conditions inside it to grow sprouts, microgreens and plants from seeds placed in it without much intervention of humans through the growing process. Photographs of the sprouts, microgreens and plants are taken periodically by a camera. A computer then uploads the photographs to a server. The server runs artificial intelligence programs to determine the state of the growth and suggests back to the computer how to operate the controls for environment. A user application program on a remote computer or mobile device reports the state of the box, enables the user to buy seeds, enables the user to make own recipes, and enables multiple users to share their growing experience and custom recipes. 1. A plant growing system comprising a front panel;', 'a plurality of housing wall panels; and', 'a door;, 'a housing having an internal space, the housing comprisingan insulating separator dividing the internal space of the housing into a lower chamber and an upper chamber;two or more thermal units each comprising a heater and a fan, each of the lower chamber and the upper chamber being directly connected to a respective thermal unit of the two or more thermal units;two or more cans disposed in the lower chamber, each of the two or more cans being configured to receive a first plurality of seeds or a growing medium mixed with a second plurality of seedstwo or more trays arranged vertically in the upper chamber, each of the two or more trays being configured to receive a third plurality of seeds or a growing medium mixed with a fourth plurality of seeds;a camera system monitoring growth states of sprouts or microgreens growing from the first plurality of seeds, the second plurality of seeds, the third plurality of seeds or the fourth plurality of seeds;two or more temperature sensor systems sensing temperatures of the lower chamber and the upper chamber;two or more humidity sensor systems sensing humidity of ...

Plant Containment System Having Two-Position Valve

A plant growing, transportation, display, and maintenance system including a plant pot and corresponding container having a selectable valve that controls the flow of liquid into and out of the container. In the “open” position, the valve allows water to pass into and out of the container in order to provide water to the contents of the plant pot resting in the container. In the “closed” position, the valve prevents any water flow into or out of the container. 1. A method for controlling a flow of liquid into and out of an assembly of a plant pot and a container , comprising:a. providing a plant pot, having a bottom and at least one side wall extending from said bottom up to a top rim, said bottom and said at least one side wall defining an interior of said plant pot;b. said plant pot including at least one hole located in or proximate to said bottom;c. providing at least one wick extending from below said bottom of said plant pot, through said hole, and into said interior of said plant pot;d. providing a container, including a bottom, and a side wall extending upward from said bottom;e. said plant pot resting in said container, with said bottom of said plant pot being above said bottom of said container;f. providing an overflow opening in said container;g. providing a valve located in said overflow opening, said valve being movable between an open position in which said valve allows said liquid to flow through said overflow opening and a closed position in which said valve prevents any flow of said liquid through said overflow opening;h. selectively opening and closing said valve in order to allow or prohibit passage of said liquid through said overflow opening; andi. said container including a defined overflow level, said defined overflow level being a level of water resulting in said container when said container is flooded to a level above said valve, said valve is opened, and water is allowed to flow out of said container through said valve until a stable level ...

Multi-filtration auto-drainage/irrigation pipe and planting device

A multi-filtration auto-drainage/irrigation pipe includes a pipe body, which includes a first drainage and irrigation channel, a second drainage and irrigation channel, a third drainage and irrigation channel, a first drainage and irrigation port, a second drainage and irrigation port and a third drainage and irrigation port. The first drainage and irrigation port is a first filtering layer having first filtering holes uniformly distributed. The second drainage and irrigation port is a second filtering layer having second filtering holes uniformly distributed. The third drainage and irrigation port is a third filtering layer having third filtering holes uniformly distributed. The first drainage and irrigation port is arranged on a pipe wall of the pipe body. The second drainage and irrigation port is arranged between the second and the third drainage and irrigation channels. The third drainage and irrigation port is arranged between the second and the first drainage and irrigation channels. When draining, water flows through the first filtering layer, the second filtering layer, the third filtering layer and the first drainage and irrigation channel, and then is discharged. When irrigating, water flows through the first drainage and irrigation channel, the third filtering layer, the second filtering layer and the first filtering layer, and then is discharged. 1. A multi-filtration auto-drainage/irrigation pipe having both a drainage function and an irrigation function , comprising a pipe body , wherein:said pipe body comprises a first drainage and irrigation channel, a second drainage and irrigation channel, a third drainage and irrigation channel, a first drainage and irrigation port, a second drainage and irrigation port and a third drainage and irrigation port;said first drainage and irrigation port is a first filtering layer and a plurality of first filtering holes are uniformly distributed thereon;said second drainage and irrigation port is a second filtering ...

PLANT CULTIVATION SYSTEM, CONTROLLER, AND PLANT CULTIVATION METHOD

A plant cultivation system includes: a first sensor configured to output a sensor signal corresponding to an amount of water in a plant; a second sensor configured to output a sensor signal corresponding to a measurement value of an environment condition; and a controller, wherein the controller is configured to, by using a sensor signal from the first sensor obtained by the first sensor measuring a plant to be cultivated and a sensor signal from the second sensor obtained by the second sensor measuring an environment for cultivating the plant to be cultivated, control a specific environment parameter corresponding to the environment condition and measured by the second sensor, in a cultivation environment for the plant to be cultivated. 1. A plant cultivation system comprising:a first sensor configured to output a sensor signal corresponding to an amount of water in a plant;a second sensor configured to output a sensor signal corresponding to a measurement value of an environment condition; anda controller, whereinthe controller is configured to, by using a sensor signal from the first sensor obtained by the first sensor measuring a plant to be cultivated and a sensor signal from the second sensor obtained by the second sensor measuring an environment for cultivating the plant to be cultivated, control a specific environment parameter corresponding to the environment condition and measured by the second sensor, in a cultivation environment for the plant to be cultivated.2. The plant cultivation system according to claim 1 , whereinthe first sensor includes a first electrode and a second electrode, andthe outputting of the sensor signal corresponding to the amount of water includes outputting the sensor signal at a time interval corresponding to an amount of electric energy generated due to an electrolyte in water present between the first electrode and the second electrode.3. The plant cultivation system according to claim 2 , whereinat least one of the first ...

CLOSED LOOP SELF-WATERING SUB-IRRIGATION PLANTER

A closed loop sub-irrigation self-watering planter of unitary construction amendable to additive or subtractive manufacturing. A three-dimensional outer mold line decorative flowerpot fused to a structural strength and moisture air lattice barrier, that is fused to a self-watering inner mold line sub irrigated planter. A divider divides an upper space of the planter for soil and a lower space for a water reservoir, wherein a conduit extends from the reservoir through the divider to an open end of the upper space, wherein the reservoir can be filled through the conduit. A soil opening in the divider communicates soil in the upper space with soil compacted in the second portion. A drain hole near an upper portion of the reservoir results in all water from the reservoir to pass through saturation holes in the second portion into the compacted soil therein for leaching into the soil of the upper spaced. 1. A self-watering planter of unitary construction , comprising:an inner shell defining a cavity;an outer shell;a moisture air barrier sandwiched between and fused to both the inner shell and the outer shell; a tubular section extending between a lower end and an upper open end;', 'a planar section extending radially from the upper open end, separating the cavity into a first interior environment from a second interior environment and a third interior environment, wherein the tubular section separates the second interior environment from the third interior environment; and', 'a plurality of aeration holes spaced apart along the divider;, 'a divider comprisinga drain hole one inch or less downward from the planar section; anda conduit fluidly connecting the second interior environment and an exterior environment.2. The self-watering planter of unitary construction of claim 1 , wherein the moisture air barrier is a lattice material.3. The self-watering planter of unitary construction of claim 2 , wherein the lattice material is a corn-based plastic material.4. The self- ...

Potted Plant System

The potted plant system of the present invention uses the space between the inner and outer pots as a reservoir for water. The water reservoir acts passively to transport water into the spoil of the inner pot which is subsequently used by the potted house plant. The reservoir is filled by over watering the inner pot and allowing the excess water to pass through the apertures within the inner pot. Passive transport of water from the reservoir to the soil occurs as the water saturation of the soil decreases. As a result, the soil and the potted plant remain hydrated for longer period of time as the reservoir continuously replenishes the water. The water within the reservoir can be drained through a quick connect sliding valve located on the outer pot. The quick connect sliding valve is either placed above another water receptacle or is fitted with a hose that transports the water to a drain. 2. The potted plant system of claim 1 , further comprising a spacer positioned within the outer pot to increase volume of the reservoir.3. The potted plant system of claim 1 , further comprising a water level adaptor connected to the quick connect sliding valve and positioned within the outer pot to increase volume of the reservoir.4. The potted plant system of claim 1 , wherein quick connect sliding valve is positioned on a side wall of the outer pot.5. The potted plant system of claim 1 , wherein quick connect sliding valve is positioned on a bottom of the outer pot.6. The potted plant system of claim 1 , further comprising a water level indicator on an outer surface of the outer pot.7. The potted plant system of claim 1 , further comprising of wicks positioned through a bottom of the inner pot.8. The potted plant system of claim 1 , further comprising dispersed apertures within the inner pot providing fluid connectivity between the reservoir and the inner pot.9. The potted plant system of claim 1 , further comprising a quick attach connector providing a connection means between ...

WATER LEVEL INDICATOR

A liquid level indicator and a liquid container, such as a self-watering planter, containing same. The liquid level indicator having a top end and a bottom end, and a plurality of floating pushrods, each comprising an indicator flag cap. Each of the floating pushrods arranged such that the indicator flag cap of each pushrod is pushed towards the top end when liquid container is filled to different levels. 1. A liquid level indicator for a liquid container comprising:a top end and a bottom end; anda plurality of floating pushrods, each of the floating pushrods comprising an indicator flag cap;wherein the floating pushrods are implemented such that the indicator flag cap of each pushrod is pushed towards the top end when the liquid container is filled to different levels.2. The liquid level indicator of claim 1 , wherein the plurality of floating pushrods comprises a first floating pushrod and a second floating pushrod.3. The liquid level indicator of wherein the indicator flag cap of the first floating pushrod is pushed towards the top end when the liquid container is half full claim 2 , and wherein the indicator flag cap of the second floating pushrod is pushed towards the top end when the liquid container is full.4. The liquid level indicator of wherein the indicator flag cap of the first floating pushrod is pushed towards the top end when the liquid container is one-third full claim 2 , and wherein the indicator flag cap of the second floating pushrod is pushed towards the top end when the liquid container is full.5. The liquid level indicator of wherein the first floating pushrod and second floating pushrod are semi-cylindrical.6. The liquid level indicator of wherein the first floating pushrod is cylindrical and second floating pushrod is annular.7. The liquid level indicator of further comprising a divider.8. The liquid level indicator of wherein the divider is an integrated divider.9. The liquid level indicator of wherein the divider is an independent divider. ...

Self-contain plant watering apparatus system

Self-contain plant watering apparatus system depicted in a shepherd's hook, whiskey barrel planter, wood post planter and trellis garden planter for the purpose of watering plants on a regulator bases while keeping the apparatus attractiveness in tack. Includes a quick disconnect fitting for easy hookup of any watering drip system is disclosed. It is an object of the present invention to provide an improved plant watering system which can be easily hook up and provide a regulator flow of water to any type of plant. It is another object of the present invention to provide an improved watering apparatus, which can be easily hookup to any type of irrigation system available, and keep the planter and/or plant hanger from corrosion and wear by keeping the water in a flexible hose threaded through the wood post and/or steel tubing structure. It is a further object of the present invention to provide an improved watering apparatus, which is simple and inexpensive in construction, which can be used indoor or outdoor for growing and displaying plants.

LOW FLOW PLUMBING SYSTEM

A plumbing system and water transport method. The system includes a global water source, a one way water transport mechanism, a growing tray, and a local buffer. The local buffer separates the global water source and the growing tray to prevent cross-contamination of water. The local buffer also continuously provides water to the growing tray on demand without the need for filtering or dumping of used or excess water. This results in low flow, efficient water transport. 1. A plumbing system , the system comprising:a global water source:a one way water transport mechanism;a growing tray; and 'wherein the local buffer is further configured to continuously provide water to the growing tray on demand without the need for filtering or dumping of used or excess water.', 'a local buffer configured to create a local water source to be used by the growing tray, the local water source being decoupled from the global water source such that cross-contamination of water from the local water source and the global water source is prevented,'}2. The system recited in claim 1 , wherein the global water source includes a plurality of nutrient reservoirs claim 1 , each nutrient reservoir capable of holding nutrient water with a unique composition.3. The system recited in claim 1 , wherein the global water source includes a fertigation system that creates nutrient mixes with a desired nutrient composition on demand.4. The system recited in claim 1 , wherein the growing tray includes a growing tray plumbing connection that can connect and disconnect with a corresponding dock without manual intervention or wasting water.5. The system recited in claim 1 , wherein the one way water transport mechanism includes a robot instead of plumbing pipes for transporting water from the global water source to the local water source.6. The system recited in claim 1 , wherein the growing tray is completely self-contained with no drain claim 1 , the growing tray configured to receive water via robotic ...

Plant Pot Arrangement With an Outer Pot and an Insert Pot which can be Inserted into and Removed from the Outer Pot

Plant pot system, having an outer pot and inner pot insertable into outer pot and removable from outer pot, for holding a plant with planting soil. Inserting and removing inner pot is possible without handles; after insertion, no grasping by hand is necessary, and an attractive plant pot system is created because inner pot has diagonally arranged handling recesses in its top that are open toward top; inner pot is suspended from a supporting frame thrust from underside inner pot; after inserted into outer pot, inner pot stands on base of outer pot, and the suspended position of inner pot is undone by lowering supporting frame into a lower position on inner pot, and supporting frame can be placed on top of outer pot. Supporting frame is grasped via handling recesses of outer pot, and inner pot is removed from outer pot after supporting frame is put in suspended position.

Automated Plant Irrigation System

An automated plant irrigation system provides a habitable plant environment that automatically generates moisture, sunlight, and proper soil conditions for a plant, and allows the plant to be displayed and transferred between indoor and outdoor environments. The system provides generally artificial means to grow the plant, so that the plant can grow indoors. A plant container is used to contain and display the plant and soil. Once the plant has grown to a desired size and configuration, the plant container can transfer the plant outdoors for natural growth conditions and presentation. The container may include an ornamental design and be encapsulated by a transparent housing to enhance the display of the plant. A light source directionally emits artificial sunlight on the plant. A liquid dispensing device dispensed water and liquid nutrients onto the plant and soil. A control system automatically controls dispensing moisture and artificial sunlight. 1. An automated plant irrigation system , the system comprising:a container, the container defined by a cavity and a handle, the cavity configured to form a containment reservoir, the container further configured to enable display of the contents of the cavity, the container further configured to be operational in an indoor environment and an outdoor environment;a liquid dispensing device, the liquid dispensing device defined by a liquid reservoir, a reservoir tube, and a sprayer, the liquid dispensing device configured to enable dispensing of a liquid into the cavity of the container;a pump, the pump configured to force the liquid from the liquid reservoir to the soil through the reservoir tube;a light source, the light source defined by at least one light emitting device, the light source configured to emit a light, the light source further configured to orient towards the at least one container; anda control system, the control system configured to regulate the liquid dispensing device and the light source, the ...

Self-watering portable greenhouse

A self-watering portable greenhouse is disclosed having a tubular frame constructed of light-weight, water-tight tubular members which serves as a combined structural skeleton for external walls, a platform for plant containers, and a reservoir for liquid nutrients provided to plants in plant containers by self-watering through a wick connecting the reservoir and the plant containers. 1. A portable , self-watering greenhouse comprising: a lower frame portion having a plurality of lower frame upright members connected to a plurality of lower frame lateral members, with at least one of said plurality of lower frame lateral members positioned to form a base platform for plant containers, at least one tubular riser connected to said at least one of said plurality of lower frame lateral members positioned to form a base platform for plant containers, and at least one drain port connected to one of said plurality of lower frame lateral members;', 'an upper frame portion having a plurality of upper frame vertical members connected to a plurality of upper frame horizontal members, and at least one water fill port connected to one of said plurality of upper frame horizontal members;, 'a frame constructed of water-tight tubular members to form a liquid reservoir, said frame comprisinga water level indicator;at least one float valve connectingly positioned between the lower frame portion and the upper frame portion of said frame;at least one wick fittingly connected to said at least one tubular riser, said at least one wick being adapted to facilitate capillary migration of liquid, and said at least one wick being further adapted to extend from said tubular riser; andat least one plant container having a container side portion and a container bottom portion, with said container bottom portion having an opening sized to matingly connect to said at least one tubular riser.2. The portable claim 1 , self-watering greenhouse of wherein the water level indicator is connected to the ...

Planter Water, Oxygen And Fertilizer Measuring Cup And Soil Penetrating Tube Apparatus

A planter water, oxygen and fertilizer measuring cup and soil penetrating tube apparatus is disclosed. The planter tube apparatus includes an upper reservoir and an angled lower dispensing tube. The upper reservoir includes a base and an upstanding wall, defining a volume, with a lower opening defined in at least one of the base and the upstanding wall in fluid communication with the volume. The angled lower dispensing tube extends from the upper reservoir. The angled lower dispensing tube is angled relative to the base of the upper reservoir. The angled lower dispensing tube has an outer surface and an inner channel, extending between a proximal end and a distal end, with a plurality of openings being positioned therebetween and extending through the outer surface and into the inner channel. A combination planter and planter tube apparatus is disclosed, as is a method of use. 1. A planter tube apparatus comprising:an upper reservoir comprising a base and an upstanding wall, defining a volume, with a lower opening defined in at least one of the base and the upstanding wall in fluid communication with the volume; andan angled lower dispensing tube extending from the upper reservoir, the angled lower dispensing tube being angled relative to the base of the upper reservoir, the angled lower dispensing tube having an outer surface and an inner channel, extending between a proximal end and a distal end, with a plurality of openings being positioned therebetween and extending through the outer surface and into the inner channel.2. The planter tube apparatus of wherein the base has an upper surface and a lower surface claim 1 , with the angled lower dispensing tube being angled relative to a plane defined by the upper surface of the base at an angle of approximately between 105° and 165°.3. The planter tube apparatus of wherein the angle is between 120° and 150°.4. The planter tube apparatus of wherein the base has an upper surface and a lower surface claim 1 , and further ...

STACKING VERTICAL GARDEN SYSTEM AND METHOD OF USE

A stackable vertical garden system includes a base to hold and receive water, a rotation system engaged with the base and having a motor engaged with a first gear and a second gear, a bearing system having an inner race rigidly attached to the second gear and an outer race to remain stationary; the motor causes rotational movement of the inner race; a stacking base to engage with the inner race such that the stacking base rotates; a stationary brace engaged with the stacking base to receive a water source; and a first plant holder engaged with the stacking base, the first plant holder having plant receivers; a water chamber extending vertically through the stacking base and first plant holder to transfer water to a top of the stackable vertical garden system; a power source connects to the motor for rotation of the stackable base. 1. A stackable vertical garden system , comprising:a base configured to hold and receive water, the base having one or more supports; a motor engaged with a first gear;', 'a second gear engaged with the first;', 'a bearing system having an inner race rigidly attached to the second gear and an outer race configured to remain stationary;', 'wherein the motor causes rotational movement of the inner race;, 'a rotation system engaged with the base and having a permeable bottom; and', 'a side wall extending from the permeable bottom;, 'a stacking base configured to engage with the inner race such that the stacking base rotates with the inner race, the stacking base havinga stationary brace engaged with the stacking base and configured to receive a water source; anda first plant holder channel engaged with the stacking base, the first plant holder having side walls and one or more plant receivers extending from the side walls;a water chamber extending vertically through the stacking base and first plant holder and configured to transfer water from the water source to a top of the stackable vertical garden system;wherein a power source connects to ...

SYSTEMS AND METHODS FOR MANAGING THE MOVEMENT OF SEEDS IN A GERMINATION SYSTEM

A method for moving wetted seeds from a tank includes positioning a first batch of seeds within a tank, directing water from a water source to the tank, wetting the first batch of seeds within the tank with the water from the water source to initiate germination of the first batch of seeds, releasing the first batch of seeds from the tank to a pod line in fluid communication with an assembly line grow pod after a predetermined time, and subsequent to releasing the first batch of seeds from the tank, detecting a level of seeds remaining in the tank. 1. A method for moving wetted seeds from a tank , the method comprising:positioning a first batch of seeds within a tank;directing water from a water source to the tank;wetting the first batch of seeds within the tank with the water from the water source to initiate germination of the first batch of seeds;releasing the first batch of seeds from the tank to a pod line in fluid communication with an assembly line grow pod after a predetermined time; andsubsequent to releasing the first batch of seeds from the tank, detecting a level of seeds remaining in the tank.2. The method of claim 1 , further comprising:determining whether the detected level of seeds remaining in the tank is greater than a predetermined threshold; andin response to determining that the detected level of seeds remaining in the tank is greater than the predetermined threshold, moving water from the water source to the tank to flush the seeds remaining in the tank.3. The method of claim 2 , further comprising claim 2 , subsequent to moving water to the tank to flush the seeds remaining in the tank claim 2 , detecting a second level of the seeds remaining in the tank.4. The method of claim 3 , further comprising draining the water moved to the tank to flush the seeds remaining in the tank.5. The method of claim 3 , further comprising:determining whether the second level of seeds remaining in the tank is greater than the predetermined threshold; andin ...

SYSTEMS AND METHODS FOR MOVING WETTED SEED THROUGH A GROW POD SYSTEM

A method for pumping seeds to an assembly line grow pods includes releasing seeds to a pipe in fluid communication with a pump, moving water from a water source to the pipe in fluid communication with the pump, combining the seeds released from the tank with the water from the water source in the pipe, and pumping the combination of the seeds released from the tank and the water from the water source to a grow pod line in fluid communication with the pump, and moving the seeds from the grow pod line to one or more carts of an assembly line grow pod. 1. A method for pumping seeds to an assembly line grow pod , the method comprising:releasing seeds to a pipe in fluid communication with a pump;moving water from a water source to the pipe in fluid communication with the pump;combining the seeds released from the tank with the water from the water source in the pipe; andpumping the combination of the seeds released from the tank and the water from the water source to a grow pod line in fluid communication with the pump; andmoving the seeds from the grow pod line to one or more carts of an assembly line grow pod.2. The method of claim 1 , further comprising claim 1 , subsequent to pumping the combination of seeds and the water from the water source claim 1 , positioning the seeds and the water in a tank at the assembly line grow pod.3. The method of claim 2 , further comprising draining excess water from the tank at the assembly line grow pod.4. The method of claim 3 , wherein draining the excess water from the tank at the assembly line grow pod comprises draining the excess water through a water outlet positioned at an upper portion of the tank.5. The method of claim 1 , further comprising:detecting a volume of seeds released to the pipe;determining whether the volume of seeds released to the pipe is above a predetermined threshold;in response to determining that the volume of seeds released to the pipe is above the predetermined threshold, increasing a pressure of water ...

AGRICULTURAL APPARATUS AND METHOD

A vertical pole () holds plant growing containers (), at multiple heights. Some containers may be mounted at a given height (H-H) in a circular array around the pole. Each container may occupy a V-shaped region about the pole in a top view. The pole may be moveable by a conveyor system (). The pole may have a fluid reservoir (), and a fluid distribution system (-) extending from the fluid reservoir to plant growing containers at different vertical locations on the pole. Each plant growing container may integrate a soil containment portion (), a bottom drain portion () that collects fluid draining through the soil, and a bypass drain portion (), that interconnects with higher and lower like containers on the pole and bypasses the soil in the containers for rinsing the soils individually. 1. An agricultural apparatus comprising:a vertically extending support member supporting multiple plant growing containers, wherein the plant growing containers are vertically separated from each other along a vertical extent of the support member, and the plant growing containers at a particular vertical location along the support member are arranged horizontally to occupy adjacent generally V-shaped regions about the vertical location;the support member configured to be moveable by a conveyor system;a fluid reservoir supported from the support member; anda fluid distribution system extending from the fluid reservoir to plant growing containers located at different vertical locations.2. The agricultural apparatus of claim 1 , wherein each plant growing container integrally comprises:a soil containment portion that holds a plant growing soil;an attachment structure that attaches the plant growing container to the vertically extending support member; anda drainage feature that collects water drained through the soil and channels it to a flush channel that extends vertically through an inner wall of the plant growing container.3. The agricultural apparatus of claim 2 , wherein the ...

SYSTEMS AND METHODS FOR WATERING A SEED TRAY

A watering station includes a robotic watering device having a first swing arm having a first end opposite a second end, a rotatable robot arm rotatably coupled to a second end of the first swing arm, a first motor configured to pivot the first swing arm, a second motor configured to rotate the rotatable robot arm with respect to the first swing arm, and pump outlets positioned on the rotatable robot arm, one or more pumps fluidly coupled to the pump outlets positioned on the rotatable robot arm, and a fluid reservoir, where the one or more pumps comprises an inlet and an outlet, and the one or more pumps are fluidly coupled to the fluid reservoir such that when activated the one or more pumps draw fluid from the fluid reservoir and disperse a predetermined amount of fluid out the pump outlets. 1. A watering station for an assembly line grow pod comprising: a first swing arm having a first end opposite a second end;', 'a rotatable robot arm rotatably coupled to the second end of the first swing arm;', 'a first motor configured to pivot the first swing arm;', 'a second motor configured to rotate the rotatable robot arm with respect to the first swing arm; and', 'one or more pump outlets positioned on the rotatable robot arm;, 'a robotic watering device comprisingone or more pumps fluidly coupled to the one or more pump outlets positioned on the rotatable robot arm; anda fluid reservoir, wherein:the one or more pumps comprises an inlet and an outlet, andthe one or more pumps are fluidly coupled to the fluid reservoir such that when activated the one or more pumps draw fluid from the fluid reservoir and disperse a predetermined amount of fluid out the one or more pump outlets.2. The watering station of claim 1 , further comprising a controller communicatively coupled to the one or more pumps and the first motor and the second motor of the robotic watering device claim 1 , wherein the controller transmits signals to the one or more peristaltic pumps and the first motor ...