Electric appliance control system for realizing high-efficiency control and signal conversion board thereof

The invention relates to an electric appliance control system for realizing high-efficiency control and a signal conversion board thereof. The system comprises a system controller and a motor; the system controller outputs a plurality of gear switch signals; the gear switch signals are high-voltage alternating current signals; the motor is a direct current brushless motor and is hereinafter referred to as an electronic control module (ECM) motor; the signal conversion board is connected between the system controller and the ECM motor; the signal conversion board comprises a gear switch detection circuit, a microprocessor controller and an interface signal processing circuit; the gear switch detection circuit detects that the system controller outputs a plurality of gear switch signals and sends the same to the microprocessor controller to process; and the microprocessor controller is connected with the ECM motor through the interface signal processing circuit. According to the electric ...

HVAC (heating ventilation and air conditioning) control system of household central air conditioner

The invention relates to an HVAC (heating ventilation and air conditioning) control system of a household central air conditioner, comprising an HVAC system controller, a centrifugal blower motor, a compressor motor, and an axial fan motor, wherein the HVAC system controller comprises an HVAC microprocessor, a sensor, a motor control interface unit and a power supply portion; the power supply portion is used to supply power for circuits of various parts; the sensor transmits a detection signal to the HVAC microprocessor through a signal processing circuit, wherein at least one of the centrifugal blower motor, the compressor motor and the axial fan motor is a permanent magnet synchronous motor without a motor controller; the motor control interface unit comprises an inverter unit and a rotor position detecting unit; the HVAC microprocessor drives the permanent magnet synchronous motor without the motor controller through the inverter unit; the rotor position detecting unit transmits a rotor ...

Centralized motor controller

A centralized motor controller for receiving commands from an application system controller and for controlling operation of a plurality of independent motors. The centralized motor controller includes: a power supply; a microprocessor; and an interface circuit for motor control including at least two inverter units and two rotor position detection units. The power supply supplies power for each circuit part. The motors are controlled by the microprocessor via the interface circuit for motor control. The number of the motors is equal to or more than three, in which, at least two of the motors are permanent magnet synchronous motors in the absence of a motor controller. The permanent magnet synchronous motors are driven by the microprocessor via the inverter units, respectively. Rotor position data of the permanent magnet synchronous motors are transmitted to the microprocessor via the rotor position detection units, respectively.

System for controlling split units of household central air conditioner

The invention relates to a system for controlling split units of a household central air conditioner, comprising an internal unit controller, an external unit controller, a centrifugal blower motor, a compressor motor and an axial fan motor. A microprocessor of an external unit is used for controlling the compressor motor and the axial fan motor through a second motor control interface unit; a microprocessor of an internal unit is used for controlling the centrifugal blower motor through a first motor control interface unit; at least one of the centrifugal blower motor, the compressor motor and the axial fan motor is a permanent-magnet synchronous motor of a motor-free controller; at least one of the first motor control interface unit and the second motor control interface unit comprises one inverting unit and one rotor-position detecting unit; the microprocessor of the internal unit or microprocessor of the external unit is used for driving the permanent-magnet synchronous motor of the ...

Centralized motor controller convenient in configuring motor

The invention relates to a centralized motor controller convenient in configuring motor. The centralized motor controller is connected with an application system controller to control a plurality of independent motors, and comprises a mother circuit board, at least two sub-circuit boards and a plurality of motors, wherein a power supply section and a mother board microprocessor are arranged on the mother circuit board; the power supply section is used for supplying power to each circuit section and each sub-circuit board; the plurality of motors include at least two permanent magnet synchronous motors without a motor controller; each sub-circuit board includes a sub-board microprocessor, an inverter unit, and a rotor position detection unit; each sub-circuit board is connected with one permanent magnet synchronous motor without the motor controller; the mother circuit is electrically connected with the plurality of sub-circuit boards through connectors; and the mother board microprocessor ...

DC permanent magnet synchronous motor

A DC permanent magnet synchronous motor, including: a motor body including a rotating shaft, a permanent rotor assembly, a stator assembly, and a housing assembly; a motor controller including a first microprocessor for drive control, an inverter circuit, and a detection circuit for detecting operating parameters of the motor; and an external control card including a second microprocessor for application control. The operating parameters of the motor are input into the first microprocessor by the detection circuit. The first microprocessor outputs a PWM signal to control the inverter circuit. An output end of the inverter circuit is connected to a coil winding. The external control card is disposed outside the motor body and is connected to the motor body via an electric wire. The second microprocessor and the first microprocessor are interconnected so that they can communicate.

Centralized motor controller for controlling a plurality of motors

The invention relates to a centralized motor controller for controlling a plurality of motors. The centralized motor controller is connected with an application system controller and used for receiving an instruction of the application system controller to control a plurality of independent motors. The centralized motor controller is characterized in that the centralized motor controller comprises a power supply section, a microprocessor, a motor control interface circuit and a plurality of motors, wherein the power supply section is used for supplying power to the circuit of each part; the microprocessor is used for controlling the plurality of motors through the motor control interface; the number of the motors is equal to or larger than 3; at least two motors are selected from a permanent magnet synchronous motor without a motor controller; the motor control interface circuit includes at least two inverter units and two rotor position detection units; the microprocessor drives the permanent ...

BLOWER

A blower including a blower volute, a blower motor, and a fan wheel. The blower motor is disposed at the top of the blower volute. The fan wheel is disposed inside the blower volute and connected to the blower motor. The blower volute comprises an air inlet, an air outlet, a cover body, and a bottom cover. A plurality of installation parts is disposed at an outer side of the cover body. The bottom cover and the cover body are embedded with each other and welded together or stuck together. The blower has a simple connection structure, high generality, friendly installation, and low cost. 2. The blower of claim 1 , wherein the bottom cover is directly embedded into an inner wall of the bottom of the cover body; the inner wall is arranged with steps and the top of the bottom cover supports the steps.3. The blower of claim 2 , wherein both the bottom cover and the inner wall have a circular shape and the bottom of the bottom cover is aligned with that of the cover body.4. The blower of claim 3 , wherein the air outlet is disposed at one side of the cover body.5. The blower of claim 1 , wherein the bottom cover comprises a circular base plate embedded into the inner wall of the bottom of the cover body and a convex ring body located in the middle of the circular base plate; the air inlet is disposed in the middle of the circular base plate and the convex ring body is located at an outer side of the air inlet.6. The blower of claim 4 , wherein the bottom cover comprises a circular base plate embedded into the inner wall of the bottom of the cover body and a convex ring body located in the middle of the circular base plate; the air inlet is disposed in the middle of the circular base plate and the convex ring body is located at an outer side of the air inlet.7. The blower of claim 5 , wherein a bottom surface of the circular base plate and outer edges of the air inlet are provided with a plurality of reinforcing ribs.8. The blower of claim 6 , wherein a bottom surface of ...

SIGNAL TRANSDUCER AND CONTROL SYSTEM COMPRISING THE SAME

A control system for electrical equipment, the system including: a system controller; a motor; and a signal transducer. The system controller outputs a plurality of rotation switch signals, and the rotation switch signals are high-voltage AC signals. The motor is a brushless DC motor or electronically commutated motor (ECM). The signal transducer is connected between the system controller and the ECM, and includes a rotation switch sensing circuit, a microprocessor controller, and an interface signal processing circuit. The rotation switch sensing circuit detects the rotation switch signals output from the system controller, and transmits the rotation switch signals to the microprocessor controller for processing. The microprocessor controller is connected with the ECM via the interface signal processing circuit. 2. The control system of claim 1 , wherein the rotation switch sensing circuit comprises a plurality of optical coupling isolation circuits.3. The control system of claim 1 , wherein the microprocessor controller is further connected with a communication port claim 1 , through the communication port the microprocessor is connected with a host computer claim 1 , and the host computer determines by programming a type of interface signal between the microprocessor controller and the ECM claim 1 , a rotational speed value of each gear claim 1 , a direction of rotation claim 1 , a control mode claim 1 , and an operating voltage of the ECM.4. The control system of claim 1 , wherein the microprocessor controller is further connected with a group of dial switches claim 1 , the microprocessor controller reads a combination state of the group of dial switches claim 1 , and determines a type of interface signal between the microprocessor controller and the ECM claim 1 , a rotational speed value of each gear claim 1 , a direction of rotation claim 1 , a control mode claim 1 , and an operating voltage of the ECM.5. The control system of claim 1 , wherein an interface ...

DC BRUSHLESS MOTOR WITH EXTERNAL ROTOR

A DC brushless motor having an external rotor, the motor including: a shaft, a stator assembly, an end cover, a housing, and a plurality of permanent magnets. The end cover includes a bearing. The housing includes: an inner wall, and an end. The shaft is connected with the stator assembly. The stator assembly is arranged inside the housing. The permanent magnets are positioned outside the stator assembly on the inner wall of the housing. The end cover is disposed on the end of the housing. The shaft is disposed on the bearing of the end cover. 1. A DC brushless motor , comprising:{'b': '1', 'a) a shaft ();'}{'b': '2', 'b) a stator assembly ();'}{'b': 3', '3', '6, 'c) an end cover (), the end cover () comprising a bearing ();'}{'b': 4', '4, 'd) a housing (), the housing () comprising: an inner wall, and an end; and'}{'b': '5', 'e) a plurality of permanent magnets (); wherein'}{'b': 1', '2, 'the shaft () is connected with the stator assembly ();'}{'b': 2', '4, 'the stator assembly () is arranged inside the housing ();'}{'b': 5', '2', '4, 'the permanent magnets () are positioned outside the stator assembly () on the inner wall of the housing ();'}{'b': 3', '4, 'the end cover () is disposed on the end of the housing (); and'}{'b': 1', '6', '3, 'the shaft () is disposed on the bearing () of the end cover ().'}2. The motor of claim 1 , wherein{'b': 41', '4', '5, 'a plurality of mounting bosses () is disposed on the end of the housing () above end surfaces of the permanent magnets ();'}{'b': 41', '410, 'each mounting boss () comprises a threaded hole ();'}{'b': 3', '31, 'the end cover () comprises a through hole (); and'}{'b': 7', '31', '3', '410', '3', '4, 'a screw () passes through the through hole () of the end cover () and is screwed into the threaded hole () for fixing the end cover () on the housing ().'}3. The motor of claim 2 , wherein{'b': 32', '3', '31, 'a gap () is arranged in an axial direction on a side wall of the end cover () outside the through hole ();'}{' ...

DC PERMANENT MAGNET SYNCHRONOUS MOTOR

A DC permanent magnet synchronous motor, including: a motor body including a rotating shaft, a permanent rotor assembly, a stator assembly, and a housing assembly; a motor controller including a first microprocessor for drive control, an inverter circuit, and a detection circuit for detecting operating parameters of the motor; and an external control card including a second microprocessor for application control. The operating parameters of the motor are input into the first microprocessor by the detection circuit. The first microprocessor outputs a PWM signal to control the inverter circuit. An output end of the inverter circuit is connected to a coil winding. The external control card is disposed outside the motor body and is connected to the motor body via an electric wire. The second microprocessor and the first microprocessor are interconnected so that they can communicate. 2. The motor of claim 1 , whereinthe detection circuit comprises a rotor position measuring circuit; andthe rotor position measuring circuit inputs rotor position data into the first microprocessor and determines an occasion for current commutation, and the first microprocessor drives the inverter circuit whereby forming an open loop control mode.3. The motor of claim 1 , whereinthe detection circuit comprises a phase current measuring circuit; andthe phase current measuring circuit inputs current data into the first microprocessor, and the first microprocessor drives the inverter circuit whereby forming an open loop control mode.4. The motor of claim 1 , whereinthe second microprocessor and the first microprocessor are interconnected for communication via an R/T serial communication module; andthe first microprocessor sends operating data of the motor to the second microprocessor, the second microprocessor sends a control command to the first microprocessor according to the operating data of the motor, and the first microprocessor executes the control command and controls the inverter ...

CENTRALIZED MOTOR CONTROLLER

A centralized motor controller for receiving commands from an application system controller and for controlling operation of a plurality of independent motors. The centralized motor controller includes: a power supply; a microprocessor; and an interface circuit for motor control including at least two inverter units and two rotor position detection units. The power supply supplies power for each circuit part. The motors are controlled by the microprocessor via the interface circuit for motor control. The number of the motors is equal to or more than three, in which, at least two of the motors are permanent magnet synchronous motors in the absence of a motor controller. The permanent magnet synchronous motors are driven by the microprocessor via the inverter units, respectively. Rotor position data of the permanent magnet synchronous motors are transmitted to the microprocessor via the rotor position detection units, respectively. 2. The centralized motor controller of claim 1 , whereinthe motors comprise an AC motor;the interface circuit for motor control comprises a relay and a drive circuit thereof; andthe AC motor is controlled by the microprocessor via the relay and the drive circuit thereof.3. The centralized motor controller of claim 1 , whereinthe motors are all permanent magnet synchronous motors in the absence of motor controllers;the interface circuit for motor control comprises a plurality of inverter units and a plurality of rotor position detection units; andone motor is connected to the microprocessor via one inverter unit and one rotor position detection unit.4. The centralized motor controller of claim 1 , wherein the rotor position detection unit is a phase current detection unit; and the rotor position data are calculated by real time phase current.5. The centralized motor controller of claim 4 , wherein the microprocessor is provided with an internal or external memory for storing operating parameters and operating models of the motors.6. The ...

HVAC CONTROL SYSTEM FOR HOUSEHOLD CENTRAL AIR CONDITIONING

An HVAC control system for a household central air conditioning, including an HVAC system controller, a centrifugal blower motor, a compressor motor, and an axial fan motor. The HVAC system controller includes an HVAC microprocessor, a sensor, an interface unit for motor control, a power supply part, and a signal processing circuit. The interface unit for motor control includes an inverter unit and a rotor position detection unit. At least one of the centrifugal blower motor, the compressor motor, and the axial fan motor is a permanent magnet synchronous motor in the absence of a motor controller. The HVAC microprocessor drives the permanent magnet synchronous motor in the absence of a motor controller via the inverter unit. The rotor position detection unit sends a rotor position signal of the permanent magnet synchronous motor in the absence of a motor controller to the HVAC microprocessor. 2. The system of claim 1 , wherein the centrifugal blower motor is the permanent magnet synchronous motor in the absence of a motor controller; and the compressor motor and the axial fan motor are AC motors.3. The system of claim 1 , wherein the compressor motor is the permanent magnet synchronous motor in the absence of a motor controller; and the centrifugal blower motor and the axial fan motor are AC motors.4. The system of claim 1 , wherein the axial fan motor is the permanent magnet synchronous motor in the absence of a motor controller; and the compressor motor and the centrifugal blower motor are AC motors.5. The system of claim 1 , wherein the centrifugal blower motor and the compressor motor are the permanent magnet synchronous motors in the absence of a motor controller; and the axial fan motor is an AC motor.6. The system of claim 1 , wherein the centrifugal blower motor and the axial fan motor are the permanent magnet synchronous motors in the absence of a motor controller; and the compressor motor is an AC motor.7. The system of claim 1 , wherein the compressor ...

INDUCED DRAFT FAN

An induced draft fan, including: a fan housing, a wind wheel, and an ECM motor including a motor body and a motor controller. The motor controller is a control board that is not enclosed in a control box. The control board includes a microprocessor unit, an IGBT switch and a drive unit thereof, a detection unit for detecting operating parameters of the motor, and a DIP switch unit. The detection unit transmits operating parameters of the motor to the microprocessor unit. The microprocessor unit outputs a signal to control the IGBT switch and the drive unit thereof. An output end of the IGBT switch and the drive unit thereof is connected to the coil winding of the stator. An output end of the DIP switch unit is connected to an input end of the microprocessor unit. 2. The induced draft fan of claim 1 , wherein the DIP switch unit comprises a plurality of independent DIP switches.3. The induced draft fan of claim 1 , wherein a number of the DIP switches is between seven and twelve.4. The induced draft fan of claim 1 , wherein the microprocessor unit reads a signal of each DIP switch of the DIP switch unit to form a code set claim 1 , selects parameters of a rotational speed claim 1 , a torque claim 1 , and an air volume claim 1 , and outputs a signal to control the IGBT switch and the drive unit thereof.5. The induced draft fan of claim 1 , whereinthe control board further comprises a gear switch detection circuit;the gear switch detection circuit detects a plurality of gear switch signals output by a system controller and transmits the gear switch signals to the microprocessor; andthe microprocessor outputs a signal to control the IGBT switch and the drive unit thereof according to the gear switch signals.6. The induced draft fan of claim 2 , whereinthe control board further comprises a gear switch detection circuit;the gear switch detection circuit detects a plurality of gear switch signals output by a system controller and transmits the gear switch signals to the ...

STARTER CIRCUIT FOR C.A. MONOPHASE ENGINE

Circuit de démarrage pour un moteur C.A. monophasé, comprenant un bobinage principal (1), un circuit de détection (2), un circuit de redressement et de filtrage (3), un circuit de déclenchement (4), un circuit de commutation (5) et un bobinage de démarrage (6). Le circuit de détection est connecté en série au bobinage principal pour transformer des paramètres de courant de celui-ci en signaux de détection. Le circuit de commutation est connecté en série au bobinage de démarrage. Le circuit de redressement et de filtrage traite les signaux de détection et transfère les signaux de détection traités au circuit de déclenchement. Le circuit de déclenchement active ou désactive le circuit de commutation en fonction des signaux de détection, de manière à mettre le bobinage de démarrage sous tension ou hors tension. Le circuit de démarrage présente une grande fiabilité, une longue durée de vie, une structure de circuit simple, un faible coût et une petite taille. Starting circuit for a single-phase AC motor, comprising a main winding (1), a detection circuit (2), a rectifying and filtering circuit (3), a triggering circuit (4), a switching circuit (5) ) and a starting winding (6). The detection circuit is connected in series with the main winding to transform current parameters thereof into detection signals. The switching circuit is connected in series with the starter winding. The rectifying and filtering circuit processes the detection signals and transfers the processed detection signals to the trigger circuit. The trip circuit activates or deactivates the switching circuit according to the detection signals, so as to turn the starting winding on or off. The starter circuit has high reliability, long life, simple circuit structure, low cost and small size.

HVAC control system for household central air conditioning

An HVAC control system for a household central air conditioning, including an HVAC system controller, a centrifugal blower motor, a compressor motor, and an axial fan motor. The HVAC system controller includes an HVAC microprocessor, a sensor, an interface unit for motor control, a power supply part, and a signal processing circuit. The interface unit for motor control includes an inverter unit and a rotor position detection unit. At least one of the centrifugal blower motor, the compressor motor, and the axial fan motor is a permanent magnet synchronous motor in the absence of a motor controller. The HVAC microprocessor drives the permanent magnet synchronous motor in the absence of a motor controller via the inverter unit. The rotor position detection unit sends a rotor position signal of the permanent magnet synchronous motor in the absence of a motor controller to the HVAC microprocessor.

Starting circuit for single-phase ac motor

A starting circuit for a single-phase AC motor, comprising; a main winding, a detecting circuit, a rectifying and filtering circuit, a triggering circuit, a switching circuit and a starting winding. The detecting circuit is connected in series to the main winding for transforming current parameters thereof into detecting signals. The switching circuit is connected in series to the starting winding. The rectifying and filtering circuit processes the detecting signals and the processed detecting signals to the triggering circuit. The triggering circuit enables or disables the switching circuit according to the detecting signals, so as to energize or deenergize the starting winding. The starting circuit features high reliability, long lifetime, simple circuit structure, low cost, and small size.

Motor with wire fixing plate

A motor with a wire fixing plate, has a stator core, a stator winding, a lead wire, and a wire fixing plate including multiple fixed portions. The wire fixing plate is made of insulating plastics, and the lead wire is fixed on the wire fixing plate via the fixed portions. The motor features firm fixation and good insulating property of a lead wire and a simple production process.

End cover and external rotor motor using the same

An end cover for an external rotor motor. The external rotor motor has a stator core having a center hole, and the end cover including a body, a cylindrical connecting portion, and multiple protruding bars each having an arc-shaped top surface. The cylindrical connecting portion is extended from the center of the body and received in the center hole of the stator core, the protruding bars are disposed on outer surface of the cylindrical connecting portion and extended in an axial direction, and the arc- shaped top surface of the protruding bar is fit with inner wall of the center hole of the stator core. The end cover is accurately fit with a stator core, requires no further processing after die--casting and thus reducing production cost, and is capable of preventing aluminum scraps from entering a stator.

Signal transducer and control system for electrical equipment comprising the same

A control system for electrical equipment, including a system controller, and a motor. The system controller outputs a plurality of rotation switch signals. The motor is a brushless DC motor. A signal transducer is connected between the system controller and the ECM. The signal transducer includes a rotation switch sensing circuit, a microprocessor controller, and an interface signal processing circuit; the rotation switch sensing circuit detects the rotation switch signals output from the system controller, and transmits the rotation switch signals to the microprocessor controller for processing; and the microprocessor controller is connected with the ECM via the interface signal processing circuit.

DC brushless motor with external rotor

A DC brushless motor having an external rotor, the motor including: a shaft, a stator assembly, an end cover, a housing, and a plurality of permanent magnets. The end cover includes a bearing. The housing includes: an inner wall, and an end. The shaft is connected with the stator assembly. The stator assembly is arranged inside the housing. The permanent magnets are positioned outside the stator assembly on the inner wall of the housing. The end cover is disposed on the end of the housing. The shaft is disposed on the bearing of the end cover.

Motor with cable mounting plate

Motor mit einer Kabelbefestigungsplatte (1), umfassendeinen Statorkern;eine Statorwicklung (16);ein Anschlusskabel (11); undeine Kabelbefestigungsplatte (1) mit mehreren befestigten Anteilen (2, 3, 4, 5);wobei besagte Kabelbefestigungsplatte (1) aus isolierendem Kunststoff hergestellt ist;besagtes Anschlusskabel (11) an besagter Kabelbefestigungsplatte (1) durch besagte befestigte Anteile (2, 3, 4, 5) befestigt ist, wobei eine Nut (2) an besagtem befestigtem Anteil besagter Kabelbefestigungsplatte (1) positioniert ist;eine Druckschnalle (3) oben an besagter Nut (2) vorhanden ist, besagtes Anschlusskabel in besagter Nut (2) mittels Druckschnalle (3) befestigt ist,besagter fester Anteil ein Paar vorspringende Bereiche (4) umfasst, die sich gegenüberstehen, besagte Nut (2) zwischen den vorspringenden Bereichen (4) geformt ist,besagte Druckschnalle (3) an der Innenseite oben an besagten vorspringenden Bereichen (4) positioniert ist; undein erster Flansch (5) an der Innerseite an besagtem anderen vorspringenden Bereich (4) positioniert und versetzt zu besagter Druckschnalle (3) positioniert ist. A motor having a cable mounting plate (1) comprisinga stator core; a stator winding (16); a connecting cable (11); anda cable fixing plate (1) having a plurality of fixed portions (2, 3, 4, 5); said cable fixing plate (1) being made of insulating plastic; said connecting cable (11) to said cable fixing plate (1) through said fixed portions (2, 3 , 4, 5), with a groove (2) positioned on said attached portion of said cable fixing plate (1); a pressure buckle (3) is provided on top of said groove (2), said connecting cable in said groove (2) by means of Snap buckle (3) is attached, said fixed portion comprises a pair of protruding portions (4) facing each other, said groove (2) is formed between the protruding portions (4), said snap buckle (3) on the inside at the top of said protruding Areas (4) is positioned; anda first flange (5) positioned on the inside at said other protruding ...

Motor case

A motor case, including at least a body forming a housing cavity; a pair of end shields, having a uniform thickness, directly attached one to each end of the body; a pair of stopping plates directly attached one to each the end shield, the stopping plates being coplanar with the end shields; and a pair of flanges directly attached one to each the end shield and together with the stopping plates forming a hollow sleeve-shaped bearing housing, the flanges extending from the end shields fully into the housing cavity, and the flanges being profiled in part at an acute angle with respect to the stopping plates, in part in parallel to the stopping plates, and in part in perpendicular to the stopping plates.

DC brushless motor with external rotor

Moteur de rotor externe

Un moteur de rotor externe, comprenant un stator, un rotor (12), ainsi qu'un axe de rotation (7), le rotor (12) est placé à l'extérieur du stator, le rotor (12) est connecté à l'axe de rotation (7), et l'axe de rotation (7) est placé sur le stator au moyen d'un palier (6), le stator comprend un noyau de stator (1) et un dispositif d'enroulement (2), le dispositif d'enroulement (2) entoure le noyau de stator (1), un boîtier d'isolation (3) est moulé par injection à l'extérieur du noyau de stator (1) et du dispositif d'enroulement (2), le boîtier d'isolation (3) abrite le noyau de stator (1) et le dispositif d'enroulement (2) et les sépare de l'extérieur. L'invention se caractérise par une bonne propriété d'isolation, possède une protection contre l'eau, les poussières, l'usure et l'oxydation et un isolation final des fils de métal non ferreux améliore la sécurité et la fiabilité du moteur, réduit le poids et le coût du moteur, améliore l'effet d'évacuation de chaleur du stator, réduit la montée de température du moteur, permet une installation plus simple du moteur et augmente ainsi la rentabilité de production.

Moteur de rotor externe

Un moteur de rotor externe, comprenant un stator, un rotor (12), ainsi qu'un axe de rotation (7), le rotor (12) est placé à l'extérieur du stator, le rotor (12) est connecté à l'axe de rotation (7), et l'axe de rotation (7) est placé sur le stator au moyen d'un palier (6), le stator comprend un noyau de stator (1) et un dispositif d'enroulement (2), le dispositif d'enroulement (2) entoure le noyau de stator (1), un boîtier d'isolation (3) est moulé par injection à l'extérieur du noyau de stator (1) et du dispositif d'enroulement (2), le boîtier d'isolation (3) abrite le noyau de stator (1) et le dispositif d'enroulement (2) et les sépare de l'extérieur. L'invention se caractérise par une bonne propriété d'isolation, possède une protection contre l'eau, les poussières, l'usure et l'oxydation et un isolation final des fils de métal non ferreux améliore la sécurité et la fiabilité du moteur, réduit le poids et le coût du moteur, améliore l'effet d'évacuation de chaleur du stator, réduit la montée de température du moteur, permet une installation plus simple du moteur et augmente ainsi la rentabilité de production.