Heat dissipation apparatus

Light-emitting diode substrate

Light-emitting diode substrate

LED package

A LED package includes a substrate, at least one LED chip, a transparent adhesive and a lens. The at least one LED chip is mounted on the substrate. The transparent adhesive is filled between the LED chip and the lens. A number of through holes is regularly defined in an optical non-effective portion of the lens. The through holes are configured for increasing the air convection between inside and outside of the lens.

Solar cell package

LED bulb and method for manufacturing the same

An LED bulb includes a heat sink, a circuit, an LED, and a driving module. The heat sink includes a base, a tube extending downwardly from a first face of the base, and a plurality of fins extending outwardly from an outer circumference of the tube. The circuit is formed on a second face of the base, and the LED is disposed on the second face of the base and electrically connected with the circuit. The LED bulb further includes a first lead and a second lead electrically connecting with the circuit and extending through the base. The driving module includes a first electrode, and a second electrode electrically insulated from the first electrode and surrounding the first electrode. The first electrode of the driving circuit contacts with the first lead, and the second electrode of the driving circuit contacts with the second lead.

Solar cell package

Solar cell package

Light source holder and bulb using same

A light source holder includes a spherical surface and a number of recessed portions. The recessed portions are defined in the spherical surface and arranged substantially evenly over the spherical surface. Each of the recessed portions comprises a plurality of inner surfaces. The inner surface of each recessed portion comprises a bottom surface and a lateral reflective surface. The bottom surface is capable of having a solid-state light source arranged thereon. The lateral reflective surface is adjacent to the bottom surface and configured for reflecting light emitted from the solid-state light source and outputting the light from the recessed portion.

LIGHT SOURCE APPARATUS

A light source apparatus is provided. The light source apparatus comprises an electric-conductive terminal, a control circuit, a first light source device, and a second light source device. The electric-conductive terminal defines a receiving space. The control circuit is disposed within the receiving space of the electric-conductive terminal and is electrically connected to the electric-conductive terminal. The first light source device and the second light source device are both electrically connected to the control circuit. When the control circuit detects a switching signal, the control circuit enables the first light source device to change from a first brightness to a second brightness and enables the second light source device to change from a third brightness to a fourth brightness. 1. A light source apparatus , comprising:an electric-conductive terminal, defining a receiving space;a control circuit, being disposed in the receiving space of the electric-conductive terminal and electrically connected to the electric-conductive terminal;a first light source device, being electrically connected to the control circuit; anda second light source device, being electrically connected to the control circuit;wherein when a switching signal is detected by the control circuit, the control circuit enables the first light source device to change from a first brightness to a second brightness and enables the second light source device to change from a third brightness to a fourth brightness.2. The light source apparatus as claimed in claim 1 , wherein the electric-conductive terminal is electrically connected to a direct current (DC) voltage source claim 1 , and receives a DC voltage from the DC voltage source.3. The light source apparatus as claimed in claim 1 , further comprising:an alternating current (AC) to DC (AC/DC) converter, being electrically connected to the control circuit and the electric-conductive terminal, and being configured to receive an AC voltage and ...

Light-emitting diode substrate

LED bulb

An LED bulb includes a connector for electrically connecting with a power supply, a heat sink disposed on the connector, and a plurality of LEDs mounted the heat sink. The heat sink includes a base, a tube extending downwardly from a first face of the base, and a plurality of fins extending outwardly from an outer circumference of the tube. The LEDs are attached on a second face of the base. The base defines a plurality of through tunnels extending through the base from the first face to the second face of the base.

Light emitting diode bulb

Light-emitting diode substrate

Led package

A LED package includes a substrate, at least one LED chip, a transparent adhesive and a lens. The at least one LED chip is mounted on the substrate. The transparent adhesive is filled between the LED chip and the lens. A number of through holes is regularly defined in an optical non-effective portion of the lens. The through holes are configured for increasing the air convection between inside and outside of the lens.

LAMP ENVELOPE AND LED LAMP USING THE SAME

An LED lamp includes a lamp holder, a heat sink, a light source and an envelope. The lamp holder is configured for electrically connecting with a power source. The heat sink is connected to the lamp holder. The light source is mounted on the heat sink. The envelope is mounted on the heat sink and covers the light source. The envelope has a light incident surface and a light output surface opposite to the light incident surface. A plurality of lens are formed on the lamp envelope and configured for collecting light rays generated by the light source. 1. A lamp envelope adapted for covering a light source of a lamp , the lamp envelope comprising a light incident surface facing the light source , and a light output surface opposite to the light incident surface , wherein a plurality of lenses are formed on the lamp envelope and configured for collecting light rays generated by the light source.2. The lamp envelope of claim 1 , wherein the plurality of lens are formed in the light incident surface claim 1 , and the light output surface is smooth.3. The lamp envelope of claim 1 , wherein the plurality of lens are formed in the light output surface claim 1 , and the light incident surface is smooth.4. The lamp envelope of claim 1 , wherein the lamp envelope consists of a connecting portion and a covering portion claim 1 , the covering portion being separately formed from the connecting portion and combined with the connecting portion claim 1 , the light incident surface and the light output surface being formed on the covering portion.5. The lamp envelope of claim 4 , wherein the connecting portion and the covering portion are made of plastic and formed by a process of plastic injection molding.6. The lamp envelope of claim 4 , wherein the connecting portion and the covering portion are combined together by a process of ultrasonic welding.7. The lamp envelope of claim 4 , wherein the connecting portion forms a first positioning structure thereon claim 4 , the covering ...

LED BULB AND METHOD FOR MANUFACTURING THE SAME

An LED bulb includes a heat sink, a circuit, an LED, and a driving module. The heat sink includes a base, a tube extending downwardly from a first face of the base, and a plurality of fins extending outwardly from an outer circumference of the tube. The circuit is formed on a second face of the base, and the LED is disposed on the second face of the base and electrically connected with the circuit. The LED bulb further includes a first lead and a second lead electrically connecting with the circuit and extending through the base. The driving module includes a first electrode, and a second electrode electrically insulated from the first electrode and surrounding the first electrode. The first electrode of the driving circuit contacts with the first lead, and the second electrode of the driving circuit contacts with the second lead. 1. An LED bulb comprising:a heat sink comprising a base, a tube extending downwardly from a first face of the base, and a plurality of fins extending outwardly from an outer circumference of the tube;a circuit formed on a second face of the base;an LED disposed on the second face of the base and electrically connected with the circuit;a first lead and a second lead electrically connecting with the circuit and extending through the base; anda driving module comprising a contact portion, the contact portion comprising a first electrode, and a second electrode electrically insulated from the first electrode and surrounding the first electrode;wherein the first electrode of the driving circuit contacts with the first lead, and the second electrode of the driving circuit contacts with the second lead to electrically connect the LED with the driving module.2. The LED bulb as described in further comprising a connector electrically connected with the driving module and configured for electrically connecting with a power source to supply power to the LED bulb.3. The LED bulb as described in claim 1 , wherein the contact portion is disc-shaped.4. ...

LIGHT CONCENTRATOR ASSEMBLY AND SOLAR CELL APPARATUS HAVING SAME

A light concentrator assembly includes a first Fresnel lens, a second Fresnel lens, and a compound parabolic concentrator. The first Fresnel lens includes a first flat surface and an opposite first Fresnel lens surface. The second Fresnel lens includes a second flat surface and an opposite second Fresnel lens surface facing the first Fresnel lens surface. A first focal point of the first Fresnel lens and a second focal point of the second Fresnel lens coincide. The compound parabolic concentrator is located opposite the second flat surface. Light beams are converged by the first and second Fresnel lenses, and exit through the compound parabolic concentrator. 1. A light concentrator assembly comprising:a first Fresnel lens comprising a first flat surface and an opposite first Fresnel lens surface, the first Fresnel lens configured to converge parallel incident light beams at a first focal point thereof;a second Fresnel lens comprising a second flat surface and an opposite second Fresnel lens surface, wherein the second Fresnel lens surface faces the first Fresnel lens surface, the second Fresnel lens has a second focal point coinciding with the first focal point, and a size of second Fresnel lens is smaller than that of the first Fresnel lens; anda compound parabolic concentrator comprising a light incident opening, an opposite light output opening, and a parabolic surface located between the light incident opening and the light output opening, the compound parabolic concentrator aligned with the first and second Fresnel lenses, the second Fresnel lens configured to converge the light beams from the first Fresnel lens, the parabolic surface configured to reflect and direct the light beams from the second Fresnel lens to exit through the light output opening.2. The light concentrator assembly of claim 1 , wherein the light incident opening has the same size as that of the second Fresnel lens.3. The light concentrator assembly of claim 1 , wherein the size of the light ...

LIGHT CONCENTRATION ELEMENT ASSEMBLY AND SOLAR CELL APPARATUS HAVING SAME

A light concentration element assembly includes a Fresnel lens unit and a compound parabolic concentrator. The Fresnel lens unit includes a first Fresnel lens and a second Fresnel lens arranged parallel with each other, and configured for converging light transmitted therethrough. The compound parabolic concentrator includes at least two paraboloidal reflecting surfaces. The parabolic concentrator includes a light incident opening facing the Fresnel lens unit and a light output opening, and the paraboloidal reflecting surfaces are configured for reflecting the converged light from the Fresnel lens unit and outputting the reflected light through the light output opening. A solar cell apparatus using the light concentration element assembly is provided. 1. A light concentration element assembly , comprising:a Fresnel lens unit comprising a first Fresnel lens and a second Fresnel lens arranged parallel with each other, the Fresnel lens unit configured for converging light transmitted therethrough; anda compound parabolic concentrator comprising two paraboloidal reflecting surfaces, the parabolic concentrator including a light incident opening facing the Fresnel lens unit and a light output opening, the paraboloidal reflecting surfaces configured for reflecting the converged light from the Fresnel lens unit and outputting the reflected light through the light output opening.2. The light concentration element assembly of claim 1 , wherein each of the first and second Fresnel lenses includes a flat surface and a grooved surface claim 1 , the flat surfaces being light incident surfaces claim 1 , the grooved surfaces being light output surfaces.3. The light concentration element assembly of claim 2 , wherein the flat surfaces are parallel with each other.4. The light concentration element assembly of claim 2 , wherein a distance between the light incident surface of the first Fresnel lens and the light output opening is in a range from 110.46 mm to 122.25 mm.5. The light ...

LIGHT CONCENTRATOR ASSEMBLY AND SOLAR CELL APPARATUS HAVING SAME

A light concentrator assembly includes a Fresnel lens, a plano-concave lens, and a CPC. The CPC is aligned with the Fresnel lens and the plano-concave lens. The Fresnel lens unit is configured for converging parallel light transmitted the Fresnel lens. The plano-concave lens is configured for further concentrating the light from the Fresnel lens before the light converged at a point. The CPC is configured for reflecting and directing the light beams from the plano-concave lens to exit through a light output opening of the CPC. The light concentrator assembly has a large incident acceptance angle. 1. A light concentrator assembly , comprising:a Fresnel lens comprising a light incident surface and an opposite Fresnel lens surface, the Fresnel lens unit configured for converging parallel light transmitting therethrough;a plano-concave lens aligned with the Fresnel lens, the plano-concave lens having a concave surface facing toward the Fresnel lens and an opposite plane surface; anda compound parabolic concentrator aligned with the plano-concave lens comprising a light incident opening, an opposite light output opening, and a parabolic surface located between the light incident opening and the light output opening, the plano-concave lens configured for directing the light from Fresnel lens to the compound parabolic concentrator, the compound parabolic concentrator aligned with the Fresnel lens and the plano-concave lens, the parabolic surface configured to reflect and direct the light beams from the plano-concave lens to exit through the light output opening.2. The light concentrator assembly of claim 1 , wherein a distance between the plano-concave lens and the Fresnel lens is less than a focal length of the Fresnel lens.3. The light concentrator assembly of claim 1 , wherein a radius of the Fresnel lens is in a range of 50 mm-65 mm claim 1 , a focal length of the Fresnel lens is in a range of 100 mm-120 mm claim 1 , a center thickness of the plano-concave lens is in a ...

LIGHT ENERGY TESTING DEVICE

A light energy testing device includes a light source emitting parallel light, a Fresnel lens concentrating the parallel light, a fiber array consisting of a plurality of optical fibers, and an energy detecting device. Each fiber includes a light incident and emitting surface. The light incident surfaces are coplanar to define a light receiving surface. The light emitting surfaces cooperatively define a light transmitting surface. The energy detecting device includes a plurality of sensor units optically coupled with the light transmitting surface and a testing device connected to the sensor units. The parallel light is focused by the Fresnel lens to irradiate the light receiving surface. The sensor units generate energy signals according to the light from the light transmitting surface. The energy detecting device calculates a light energy distribution according to the energy signals. 1. A light energy testing device comprising:a light source emitting parallel light,a Fresnel lens concentrating the parallel light,a fiber array comprising a plurality of fibers adjacent to each other, each fiber comprising a light incident surface and a light emitting surface, the light incident surfaces of the plurality of fibers being coplanar to define a light receiving surface at a focal point of the Fresnel lens, the light emitting surfaces of the plurality of fibers being coplanar to define a light transmitting surface, andan energy detecting device comprising a plurality of sensor units optically coupled with the light transmitting surface and a testing device connected to the plurality of sensor units, the parallel light being focused by the Fresnel lens to irradiate the light receiving surface, the plurality of sensor units generating energy signals according to the light emitted out from the light transmitting surface, wherein the energy detecting device calculates a light energy distribution of the parallel light irradiating to the light receiving surface according to the ...

LED BULB

An LED bulb includes a connector for electrically connecting with a power supply, a heat sink disposed on the connector, and an LED mounted the heat sink. The heat sink has a first face and a second face opposite to the first face. The LED is attached on a first face of the base. The heat sink defines a plurality of through tunnels extending through the heat sink from the first face to the second face thereof. 1. An LED bulb comprising:a connector for being electrically connected to a power supply;a heat sink disposed on the connector, the heat sink having a first face and a second face opposite to the first face and adjacent to the connector; andat least an LED mounted on the first face of the heat sink;wherein the heat sink defines a plurality of through tunnels extending through the heat sink from the first face to the second face of the heat sink.2. The LED bulb as described in claim 1 , wherein the heat sink comprises a body claim 1 , and a plurality of fins extending outwardly from an outer circumference of the body.3. The LED bulb as described in claim 2 , wherein the through tunnels extend through the body of the heat sink.4. The LED bulb as described in claim 3 , wherein the fins are spaced from each other claim 3 , and an airflow passage is defined between every two adjacent fins.5. The LED bulb as described in claim 4 , wherein each of the through tunnels is located adjacent to a corresponding passage.6. The LED bulb as described in claim 1 , wherein the through tunnels are spaced from each other.7. The LED bulb as described in claim 1 , wherein the through tunnels are arranged along a circumferential direction of the heat sink.8. The LED bulb as described in claim 1 , wherein the heat sink is integrally made of ceramic.9. The LED bulb as described in claim 8 , wherein the ceramic is made a material selected from a group consisting of alumina claim 8 , silicate claim 8 , oxide claim 8 , carbide claim 8 , nitride claim 8 , sulfide and boride.10. The LED ...

LED lamp, LED module and heat sink thereof

A method for coating phosphor

LED lamp

Heat dissipation structure of LED light source

Portable solar power generator with internal light guide element

An exemplary portable solar power generator includes a hollow light pervious housing, a light guide element, a condensing lens, a solar cell unit, and a connector assembly. The housing has a first refractive index, and sunlight enters the housing by passing through an outer surface thereof. The light guide element is positioned in and attached to the housing, which has a second refractive index larger than the first refractive index. The condensing lens is positioned in the housing, which is configured for converging the light incident thereon. The solar cell unit is positioned in the light pervious housing and located at a side of the condensing lens opposite to the light guide element. The solar cell unit is configured for receiving the light converged by the condensing lens and converting the received sunlight into electrical energy. The connector assembly is electrically coupled to the solar cell unit.

Ｌｅｄパッケージ

【課題】本発明は、放熱効果が向上されたＬＥＤパッケージを提供することである。 【解決手段】本発明に係るＬＥＤパッケージは、基板と、前記基板に設置されている少なくとも１つのＬＥＤチップと、前記ＬＥＤチップを封止する封止部材と、前記封止部材に設置されているレンズとを備え、前記レンズの非光学区域には、空気対流スルーホールが開設されている。 【選択図】図１

Light concentrator and solar cell apparatus

散熱裝置

【物品用途】;本創作係關於一種散熱裝置之外觀設計，特別是一種用於照明燈具之散熱裝置。;【創作特點】;本創作係關於一種散熱裝置之外觀設計，包含一基座、複數散熱鰭片及二鎖固元件。其中，呈長形之該基座具有一上表面及下表面，各該散熱鰭片係呈錐狀並以陣列方式設於該上表面，且位於基座中央區段之各該散熱鰭片之一側面具有二凹陷部，該二鎖固元件則分別設置於基座上表面之二端，而該基座之一端更設有至少一導線孔。藉由上述之形狀構成，得使本創作之整體外形，產生獨特之視覺效果。;本創作之散熱裝置於實際使用狀態下，適可將設有複數發光二極體之一發光電路板安裝於散熱裝置之該下表面，並將一燈罩與該基座卡合以罩蓋該發光電路板。

Portable solar power device

Solar cell module

Solar cell module

発光ダイオードランプ、及びその放熱器を製造する方法

【課題】本発明は、放熱効率が高い発光ダイオードランプ、及びその放熱器を製造する方法を提供することを目的とする。 【解決手段】本発明に係る発光ダイオードランプは、放熱器と、前記放熱器に取り付けられる少なくとも１つの発光ダイオードと、を備える。前記放熱器は、セラミック材料からなり、前記放熱器における発光ダイオードが取り付けられる表面には、前記発光ダイオードに電気的に接続される回路が形成される。又、本発明は、前記発光ダイオードランプの放熱器を製造する方法にも関する。 【選択図】図１

Heat dissipation structure for a lighting apparatus

Light source apparatus

ランプ及びそのハウジング

【課題】本発明は、優れた放熱効果を有するランプ及びそのハウジングを提供することを目的とする。 【解決手段】本発明のランプは、第一端面、前記第一端面に対向する第二端面、前記第一端面及び前記第二端面を接続する接続面を有するハウジングと、前記ハウジングの第一端面に位置し、且つ前記ハウジングに熱伝導可能に接続する光源と、前記ハウジングの第二端面に接続され、且つ前記光源に電気的に接続する電気接続部と、を備え、前記ハウジングには、周囲が閉鎖された貫通孔である放熱通路が設けられ、前記放熱通路は、前記第一端面から前記第二端面に向かう方向に沿って延在して、空気の対流及び循環を促進する。 【選択図】図１

A method for coating phosphor

Lighting device

散熱裝置

【物品用途】 本創作之物品係一種散熱裝置(Heat dissipation apparatus)。 【創作特點】 本創作散熱裝置具有其獨特創意表現之造型設計。如圖所示，該散熱裝置包括一個平板狀基板以及多個設置於基板上陣列排佈之散熱鰭片單元。相鄰的散熱鰭片單元之間具有一定間隙，以加強空氣對流。該多個散熱鰭片單元的高度從該基板的兩端向中間依次變小，以進一步加強空氣對流。本物品構成整體具有雅緻之視效，係一優美之新式樣者。

Method for forming phosphor coating

An exemplary method for forming phosphor coating includes: providing a substrate; forming a first hydrophilic film on the substrate, the first film being soluble in water; forming a second lipophilic film on the first film, the second film comprised of a phosphor material; submerging the substrate having the first film and the second film formed thereon into water, so that the first film is dissolved in water and the second film is floated on surface of the water; and dipping a light source into the second film to forming a phosphor coating on the light source.

發光二極體基板

【物品用途】 本創作之物品係一種發光二極體(Light－emitting diode,LED)基板，通常配合相關構件，以作為發光體。 【創作特點】 本創作發光二極體基板係一個具有獨特創意表現之造型設計。如圖所示，該發光二極體基板為一精緻方形體，其可由金屬,陶瓷和玻璃纖維材質所構成。該方形體於四個角落處各具有一個弧形凹槽。該方形體在俯視方向上具有一圓形凹槽，該圓形凹槽底部具有一個方形圖案,且該方形圖案坐落在該圓形凹槽內部的幾何中心。再者，該方形體於仰視方向上之幾何中心部份為一個具有一平行對邊之不規則圖案。該發光二極體基板之四個側面彼此對稱。本物品構成整體具有雅緻之視效，係一優美之新式樣者。