Motors - AC, DC

Image Part Number Description / PDF Quantity Rfq
G0832013D

G0832013D

Jinlong Machinery & Electronics, Inc.

VIBRATION LRA MOTOR 2V COIN

126

C1026B002F

C1026B002F

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MOTOR 9000 RPM 3V

10334

Q4TL2BQ230001

Q4TL2BQ230001

Jinlong Machinery & Electronics, Inc.

STANDARD MOTOR 14363 RPM 3V

111

C1034B846F

C1034B846F

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MOTOR 9000 RPM 3V

0

Z7AL2A0000001

Z7AL2A0000001

Jinlong Machinery & Electronics, Inc.

STANDARD MOTOR 6647 RPM 1.3V

0

Z30C1T9870088L

Z30C1T9870088L

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MTR 8500 RPM 2.3V

891

C1027B200N

C1027B200N

Jinlong Machinery & Electronics, Inc.

VIBRATION COIN MTR 9K RPM 1.1G

0

Z30C1B839982L

Z30C1B839982L

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MTR 12000 RPM 3V

1413

C0825B002F

C0825B002F

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MTR 12000 RPM 3V

5717

Z30C1T8219731

Z30C1T8219731

Jinlong Machinery & Electronics, Inc.

VIBRATION MOTOR 14000 RPM 2.7V

13635

G0832022D

G0832022D

Jinlong Machinery & Electronics, Inc.

VIBRATION LRA MOTOR 2V COIN

118

C1020B327F

C1020B327F

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MOTOR 9000 RPM 3V

0

Z4KH2B0470653N

Z4KH2B0470653N

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MOTOR 11K RPM 1.2G

989

Z6DL2B0541192

Z6DL2B0541192

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MTR 11000 RPM 3V

616

Z30L4B8790716L

Z30L4B8790716L

Jinlong Machinery & Electronics, Inc.

VIBRATION MOTOR 11000 RPM 2.4V

534

JP08-74D160A

JP08-74D160A

Jinlong Machinery & Electronics, Inc.

VIBRATION MOTOR 15000 RPM 4.5V

577

G1036002D

G1036002D

Jinlong Machinery & Electronics, Inc.

VIBRATION LRA MOTOR 2V COIN

3589

Z6SC0B0060081

Z6SC0B0060081

Jinlong Machinery & Electronics, Inc.

VIBRATION MOTOR CYL 3V PIN

0

G1036001D

G1036001D

Jinlong Machinery & Electronics, Inc.

VIBRATION LRA MOTOR 2V COIN

3752

Z32TH7B2882001D

Z32TH7B2882001D

Jinlong Machinery & Electronics, Inc.

VIBRATION ERM MTR 13000 RPM 3V

95

Motors - AC, DC

1. Overview

AC and DC motors are electromechanical devices that convert electrical energy into mechanical motion. AC motors operate on alternating current and rely on electromagnetic induction, while DC motors use direct current and commutator-based commutation. These motors form the backbone of modern industrial automation, transportation systems, and consumer electronics, enabling precise control of motion in applications ranging from factory automation to household appliances.

2. Major Types and Functional Classification

TypeFunctional CharacteristicsApplication Examples
AC Induction MotorsSelf-starting, rugged construction, variable speed via frequency controlConveyor belts, pumps, HVAC systems
DC Brushed MotorsSimple speed control via voltage adjustment, carbon brushes for commutationPower tools, automotive actuators
Brushless DC MotorsElectronic commutation, high efficiency, low maintenanceDrones, electric vehicles, CNC machines
Servo MotorsPosition control with feedback loops, high torque-to-inertia ratioRobotics, camera gimbals, packaging machines
Stepper MotorsDiscrete angular movements, open-loop position control3D printers, textile machines, medical scanners

3. Structure and Components

Typical motor components include:

  • Stator: Stationary magnetic field component with windings
  • Rotor: Rotating assembly with conductive bars (AC) or armature coils (DC)
  • Bearings: Support shaft rotation with minimal friction
  • Commutator/Brushes: In DC motors, for current direction switching
  • Enclosure: Protects internal components and provides mounting features
  • Shaft: Transmits mechanical power to load

4. Key Technical Specifications

ParameterDescriptionImportance
Power Rating (kW/HP)Maximum continuous mechanical outputDetermines load capacity
RPMNo-load rotational speed at rated voltage/frequencyMatches motor to application speed
Torque (Nm)Rotational force capabilityCrucial for acceleration and load handling
Efficiency (%)Electrical to mechanical energy conversion rateAffects operating costs and heat generation
Ingress Protection (IP)Environmental protection ratingDetermines suitability for harsh environments
Duty CycleOperating time vs. rest periodPrevents overheating in cyclic operations

5. Application Fields

  • Industrial: CNC machining centers, automated guided vehicles
  • Consumer: Washing machines, electric fans, power windows
  • Medical: MRI scanners, infusion pumps, surgical robots
  • Transportation: Electric vehicle propulsion, locomotive traction
  • Renewables: Wind turbine generators, solar tracking systems

6. Leading Manufacturers and Products

ManufacturerProduct SeriesKey Features
SiemensSIMOTICS M-1SM1High-efficiency IE4 motor, IP65 protection
ABBACS880 Servo DriveMulti-axis coordination, dynamic response
Maxon MotorEC-i40 BrushlessSlotless design, 40mm diameter
PortescapDisc Magnet MotorsHigh torque-to-inertia ratio
Yaskawa ElectricMP Series Servos24-bit absolute encoder, vibration suppression

7. Selection Guidelines

  1. Calculate required torque and speed using load dynamics
  2. Assess environmental conditions (temperature, humidity, dust)
  3. Choose between AC/DC based on power supply availability
  4. Consider control requirements (position/velocity accuracy)
  5. Evaluate maintenance requirements and lifecycle costs
  6. Verify mounting dimensions and shaft compatibility
  7. Check compliance with industry standards (IEC, NEMA)

8. Industry Trends

Current developments include:

  • Increased adoption of IoT-enabled "smart" motors with condition monitoring
  • Integration with AI-based predictive maintenance systems
  • Development of high-torque density motors for electric vehicles
  • Advancements in wide bandgap semiconductor drives (SiC/GaN)
  • Miniaturization for portable medical and robotics applications
  • Focus on IE5 ultra-premium efficiency standards compliance

Actual Case: In a semiconductor manufacturing plant, replacing standard AC motors with high-precision brushless DC motors in wafer handling systems reduced positioning errors by 60% while decreasing energy consumption by 25% through optimized drive algorithms.

RFQ BOM Call Skype Email
Top