China Best Sales 0.12kw-315kw Y2 Series Three Phase Asynchronous Electric AC  Induction Motor for Water Pump, Air Compressor, Gear Reducer Fan Blower vacuum pump diy

Product Description

Product Description

Y2 SERIES THREE PHASE ELECTRIC MOTOR

Frame number: 63 ~ 355 Power: 0.12 ~ 315KW

Working system: S1

Applications: General purpose including cutting, machine, pumps, fans, conveyors, Agricultural Machinery and food machinery 
Features:Good-looking appearance, High efficiency and energy saving, low noise and little vibration. F insulation class, IP54 or IP55 protection class

OPERATING CONDITIONS:
Ambient temperature: -15senti degree≤ 0≤ 40senti degree
Altitude: Not exceeding 1000 meters
Rated voltage: 380V, 220/380V, 380/660V, 400V, 415V
Rated frequency: 50Hz / 60 Hz

Connection:
Y Start-connection for 3KW and below
Delta-connection for 4KW or more
Duty / Rating: Continuous (S1)
Cooling type: IC411

Technical parameter:                                                                                                   

Output
(KW)

Type

Amps
(A)

Speed
(R/min)

Eff.
%

p.f.

RT
N.m

     

Noise LwdB
(A)

Weight
(Kg)

380V 50HZ 2P

0.18

Y2-631-2

0.5

2800

65.0

0.80

00.61

2.2

2.2

5.5

61

14

0.25

Y2-632-2

0.7

2800

68.0

0.81

0.96

2.2

2.2

5.5

61

14.5

0.37

Y2-711-2

1.0

2800

70.0

0.81

1.26

2.2

2.2

6.1

64

15

0.55

Y2-712-2

1.4

2800

73.0

0.82

1.88

2.2

2.3

6.1

64

15.5

0.75

Y2-801-2

1.8

2825

75.0

0.83

2.54

2.2

2.3

6.1

67

16.5

1.1

Y2-802-2

2.6

2825

77.0

0.84

3.72

2.2

2.3

7.0

67

17.5

1.5

Y2-90S-2

3.4

2840

79.0

0.84

5.04

2.2

2.3

7.0

72

21

2.2

Y2-90L-2

4.9

2840

81.0

0.85

7.40

2.2

2.3

7.0

72

25

3

Y2-100L-2

6.3

2880

83.0

0.87

9.95

2.2

2.3

7.5

76

33

4

Y2-112M-2

8.1

2890

85.0

0.88

13.22

2.2

2.3

7.5

77

41

5.5

Y2-132S1-2

11.0

2900

86.0

0.88

18.11

2.2

2.3

7.5

80

63

7.5

Y2-132S2-2

14.9

2900

87.0

0.88

24.70

2.2

2.3

7.5

80

70

11

Y2-160M1-2

21.3

2930

88.0

0.89

35.85

2.2

2.3

7.5

86

110

15

Y2-160M2-2

28.8

2930

89.0

0.89

48.89

2.2

2.3

7.5

86

120

18.5

Y2-160L-2

34.7

2930

90.5

0.90

60.30

2.2

2.3

7.5

86

135

22

Y2-180M-2

41.0

2940

91.2

0.90

71.46

2.0

2.3

7.5

89

165

30

Y2-200L1-2

55.5

2950

92.0

0.90

97.12

2.0

2.3

7.5

92

218

37

Y2-200L2-2

67.9

2950

92.3

0.90

119.78

2.0

2.3

7.5

92

230

45

Y2-225M-2

82.3

2970

92.3

0.90

144.70

2.0

2.3

7.5

92

280

55

Y2-250M-2

100.4

2970

92.5

0.90

176.85

2.0

2.3

7.5

93

365

75

Y2-280S-2

134.4

2970

93.2

0.91

241.16

2.0

2.3

7.5

94

495

90

Y2-280M-2

160.2

2970

93.8

0.91

289.39

2.0

2.3

7.5

94

565

110

Y2-315S-2

195.4

2980

94.0

0.91

352.51

1.8

2.2

7.1

96

890

132

Y2-315M-2

233.2

2980

94.5

0.91

423.02

1.8

2.2

7.1

96

980

160

Y2-315L1-2

279.3

2980

94.6

0.92

512.75

1.8

2.2

7.1

99

1055

200

Y2-315L2-2

348.4

2980

94.8

0.92

640.94

1.8

2.2

7.1

99

1110

250

Y2-355M-2

433.2

2985

95.3

0.92

799.83

1.6

2.2

7.1

103

1900

315

Y2-355L-2

544.2

2985

95.6

0.92

1007.79

1.6

2.2

7.1

103

2300

380V 50HZ 4P

0.12

Y2-631-4

0.4

1400

57.0

0.72

0.82

2.1

2.2

4.4

52

13

0.18

Y2-632-4

0.6

1400

60.0

0.73

1.23

2.1

2.2

4.4

52

13.5

0.25

Y2-711-4

0.8

1400

65.0

0.74

1.71

2.1

2.2

5.2

55

14

0.37

Y2-712-4

1.1

1400

67.0

0.75

2.54

2.1

2.2

5.2

55

14.5

0.55

Y2-801-4

1.6

1390

71.0

0.75

3.78

2.4

2.3

5.2

58

15

0.75

Y2-802-4

2.0

1490

73.0

0.77

5.15

2.4

2.3

6.0

58

16

1.1

Y2-90S-4

2.0

1400

75.0

0.77

7.50

2.3

2.3

6.0

61

23

1.5

Y2-90L-4

3.7

1420

78.0

0.79

10.23

2.3

2.3

6.0

61

25

2.2

Y2-100L1-4

5.2

1420

80.0

0.81

14.80

2.3

2.3

7.0

64

33

3.

Y2-100L2-4

6.8

1420

82.0

0.82

20.18

2.3

2.3

7.0

64

35

4.

Y2-112M-4

8.8

1440

84.0

0.82

26.53

2.3

2.3

7.0

65

41

5.5

Y2-132S-4

11.8

1440

85.0

0.83

36.48

2.3

2.3

7.0

71

65

7.5

Y2-132M-S

15.6

1440

87.0

0.84

49.74

2.2

2.3

7.0

71

76

11

Y2-160M-4

22.3

1460

88.0

0.85

71.59

2.2

2.3

7.0

75

118

15

Y2-160L-4

30.1

1460

89.0

0.85

98.12

2.2

2.3

7.5

75

132

18.5

Y2-180M-4

36.5

1470

90.5

0.85

120.19

2.2

2.3

7.5

76

164

22

Y2-1180L-4

43.2

1470

91.0

0.85

142.93

2.2

2.3

7.5

76

182

30

Y2-200L-4

57.6

1480

92.0

0.86

193.68

2.2

2.3

7.2

79

245

37

Y2-225S-4

69.9

1480

92.5

0.87

238.87

2.2

2.3

7.2

81

258

45

Y2-225M-4

84.7

1480

92.8

0.87

290.37

2.2

2.3

7.2

81

290

55

Y2-250M-4

103.3

1480

93.0

0.87

354.90

2.2

2.3

7.2

83

388

75

Y2-280S-4

139.6

1480

93.8

0.87

483.95

2.2

2.3

7.2

86

510

90

Y2-280M-4

166.9

1485

94.2

0.87

578.79

2.2

2.3

7.2

86

606

110

Y2-315S-4

201.0

1485

94.5

0.88

707.41

2.1

2.2

6.9

93

910

132

Y2-315M-4

240.4

1485

94.8

0.88

848.89

2.1

2.2

6.9

93

1000

160

Y2-315L1-4

287.8

1485

94.9

0.89

1571.96

2.1

2.2

6.9

97

1055

200

Y2-315L2-4

359.4

1485

95.0

0.89

1286.20

2.1

2.2

6.9

97

1128

250

Y2-355M-4

442.9

1490

95.3

0.90

1602.35

2.1

2.2

6.9

101

1700

315

Y2-355L-4

556.2

1490

95.6

0.90

2018.96

2.1

2.2

6.9

101

1900

380V 50HZ 6P

0.18

Y2-711-6

0.8

900

56.0

0.60

1.91

1.9

2.0

4.0

52

14

0.25

Y2-711-6

0.9

900

59.0

0.68

2.65

1.9

2.0

4.0

52

14.5

0.37

Y2-801-6

1.3

900

62.0

0.70

3.93

1.9

2.0

4.7

54

15

0.55

Y2-802-6

1.8

900

65.0

0.72

5.84

1.9

2.1

4.7

54

16

0.75

Y2-90S-6

2.3

910

69.0

0.72

7.87

2.0

2.1

5.5

57

19

1.1

Y2-90L-6

3.2

910

72.0

0.73

11.54

2.0

2.1

5.5

57

22

1.5

Y2-100L-6

3.9

940

76.0

0.76

15.24

2.0

2.1

5.5

61

32

2.2

Y2-112M-6

5.6

940

79.0

0.76

22.35

2.1

2.1

6.5

65

41

3

Y2-132S-6

7.4

960

81.0

0.76

29.84

2.1

2.1

6.5

69

63

4

Y2-132M1-6

9.9

960

82.0

0.76

39.79

2.1

2.1

6.5

69

72

5.5

Y2-132M-6

12.9

960

84.0

0.77

54.71

2.1

2.1

6.5

69

81

7.5

Y2-160M-6

16.9

970

86.0

0.78

73.84

2.0

2.1

6.5

73

118

11

Y2-160L-6

24.2

970

87.5

0.79

108.30

2.0

2.1

6.5

73

145

15

Y2-180L-6

31.6

970

89.0

0.81

147.68

2.1

2.1

7.0

73

178

18.5

Y2-200L1-6

38.6

970

90.0

0.81

182.14

2.1

2.1

7.0

76

200

22

Y2-200L2-6

44.7

970

90.0

0.83

216.60

2.1

2.1

7.0

76

228

30

Y2-225M-6

59.3

980

91.5

0.84

292.35

2.0

2.1

7.0

76

265

37

Y2-250M-6

71.1

980

92.0

0.86

360.56

2.1

2.1

7.0

78

370

45

Y2-280S-6

85.9

980

92.5

0.86

438.52

2.1

2.0

7.0

80

490

55

Y2-280M-6

104.7

980

92.8

0.86

535.97

2.1

2.0

7.0

80

540

75

Y2-315S-6

141.7

980

93.5

0.86

730.87

2.0

2.0

7.0

85

900

90

Y2-315M-6

169.5

985

93.8

0.86

872.59

2.0

2.0

7.0

85

980

110

Y2-315L1-6

206.7

985

94.0

0.86

1066.50

2.0

2.0

6.7

85

1045

132

Y2-315L2-6

244.7

985

94.2

0.87

1279.80

2.0

2.0

6.7

85

1100

160

Y2-355M1-6

292.3

990

94.5

0.88

1543.43

1.9

2.0

6.7

92

1440

200 Y2-355M2-6 364.6 990 94.7 0.88 1929.29 1.9 2.0 6.7 92 1600

250

Y2-355L-6

454.8

990

94.9

0.88

2411.62

1.9

2.0

6.7

92

1700

PRODUCTION PROCESSING:
PAINTING COLOR CODE:

Application: Universal
Operating Speed: Low Speed
Number of Stator: Three-Phase
Species: Y, Y2 Series Three-Phase
Rotor Structure: Squirrel-Cage
Casing Protection: Protection Type
Customization:
Available

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electric motor

What factors should be considered when selecting the right electric motor for a task?

When selecting the right electric motor for a task, several factors need to be considered to ensure optimal performance and compatibility. Here’s a detailed overview of the factors that should be taken into account:

  1. Load Requirements: The first consideration is understanding the specific load requirements of the task. This includes factors such as the torque or force needed to drive the load, the speed range required, and any variations in load that may occur. By accurately assessing the load requirements, you can determine the appropriate motor type, size, and characteristics needed to handle the task effectively.
  2. Motor Type: Different motor types are suited for specific applications. Common motor types include AC induction motors, brushless DC motors, brushed DC motors, and stepper motors. Each type has its own advantages and limitations in terms of speed range, torque characteristics, efficiency, control requirements, and cost. Choosing the right motor type depends on the task’s specific requirements and the desired performance.
  3. Power Supply: Consider the available power supply for the motor. Determine whether the application requires AC or DC power and the voltage and frequency range of the power source. Ensure that the motor’s power requirements align with the available power supply to avoid compatibility issues.
  4. Efficiency and Energy Consumption: Efficiency is an important factor to consider, especially for applications where energy consumption is a concern. Higher motor efficiency translates to lower energy losses and reduced operating costs over the motor’s lifetime. Look for motors with high efficiency ratings to minimize energy consumption and improve overall system efficiency.
  5. Environmental Factors: Assess the environmental conditions in which the motor will operate. Consider factors such as temperature, humidity, dust, and vibration. Some motors are specifically designed to withstand harsh environmental conditions, while others may require additional protection or enclosures. Choosing a motor that is suitable for the intended environment will ensure reliable and long-lasting operation.
  6. Control and Feedback Requirements: Determine whether the application requires precise control over motor speed, position, or torque. Some tasks may benefit from closed-loop control systems that incorporate feedback devices like encoders or sensors to provide accurate motor control. Evaluate the control and feedback requirements of the task and select a motor that is compatible with the desired control mechanism.
  7. Physical Constraints: Consider any physical constraints or limitations that may impact motor selection. These constraints may include space restrictions, weight limitations, mounting options, and mechanical compatibility with other components or equipment. Ensure that the chosen motor can physically fit and integrate into the system without compromising performance or functionality.
  8. Cost and Budget: Finally, consider the budget and cost constraints associated with the motor selection. Evaluate the initial purchase cost of the motor as well as the long-term operating costs, including maintenance and energy consumption. Strive to strike a balance between performance and cost-effectiveness to ensure the best value for your specific application.

By considering these factors, you can make an informed decision when selecting the right electric motor for a task. It is crucial to thoroughly analyze the requirements and match them with the motor’s specifications to achieve optimal performance, reliability, and efficiency.

electric motor

How do electric motors handle variations in voltage and frequency?

Electric motors are designed to handle variations in voltage and frequency to ensure proper operation and performance. The ability of electric motors to adapt to different voltage and frequency conditions depends on their design characteristics and the presence of additional control devices. Here’s a detailed explanation of how electric motors handle variations in voltage and frequency:

  1. Voltage Variations: Electric motors can handle certain variations in voltage without significant issues. The motor’s design factors in a voltage tolerance range to accommodate fluctuations in the power supply. However, excessive voltage variations beyond the motor’s tolerance can affect its performance and lead to problems such as overheating, increased energy consumption, and premature failure. To mitigate the impact of voltage variations, electric motors may incorporate the following features:
    • Voltage Regulation: Some electric motors, especially those used in industrial applications, may include voltage regulation mechanisms. These mechanisms help stabilize the motor’s voltage, compensating for slight voltage fluctuations and maintaining a relatively steady supply.
    • Voltage Protection Devices: Motor control circuits often incorporate protective devices such as voltage surge suppressors and voltage regulators. These devices help prevent voltage spikes and transient voltage variations from reaching the motor, safeguarding it against potential damage.
    • Voltage Monitoring: In certain applications, voltage monitoring systems may be employed to continuously monitor the motor’s supply voltage. If voltage variations exceed acceptable limits, the monitoring system can trigger alarms or take corrective actions, such as shutting down the motor to prevent damage.
  2. Frequency Variations: Electric motors are designed to operate at a specific frequency, typically 50 or 60 Hz, depending on the region. However, variations in the power system frequency can occur due to factors such as grid conditions or the use of frequency converters. Electric motors handle frequency variations in the following ways:
    • Constant Speed Motors: Most standard electric motors are designed for operation at a fixed speed corresponding to the rated frequency. When the frequency deviates from the rated value, the motor’s rotational speed changes proportionally. This can affect the motor’s performance, especially in applications where precise speed control is required.
    • Variable Frequency Drives (VFDs): Variable frequency drives are electronic devices that control the speed of an electric motor by varying the supplied frequency and voltage. VFDs allow electric motors to operate at different speeds and handle frequency variations effectively. By adjusting the frequency and voltage output, VFDs enable precise control of motor speed and torque, making them ideal for applications where speed control and energy efficiency are critical.
    • Inverter Duty Motors: Inverter duty motors are specifically designed to handle the frequency variations encountered when operated with VFDs. These motors feature improved insulation systems and robust designs to withstand the harmonic distortions and voltage spikes associated with VFD operation.
  3. Motor Protection: Electric motors may incorporate protective features to safeguard against adverse effects caused by voltage and frequency variations. These protection mechanisms include:
    • Thermal Protection: Motors often include built-in thermal protection devices such as thermal switches or sensors. These devices monitor the motor’s temperature and can automatically shut it down if it exceeds safe limits due to voltage or frequency variations that lead to excessive heating.
    • Overload Protection: Overload protection devices, such as overload relays, are employed to detect excessive currents drawn by the motor. If voltage or frequency variations cause the motor to draw abnormal currents, the overload protection device can interrupt the power supply to prevent damage.
    • Voltage/Frequency Monitoring: Advanced motor control systems may incorporate voltage and frequency monitoring capabilities. These systems continuously measure and analyze the motor’s supply voltage and frequency, providing real-time feedback on any deviations. If voltage or frequency variations exceed predetermined thresholds, the monitoring system can activate protective actions or trigger alarms for further investigation.

In summary, electric motors handle variations in voltage and frequency through design considerations, additional control devices, and protective mechanisms. Voltage variations are managed through voltage regulation, protective devices, and monitoring systems. Frequency variations can be accommodated by using variable frequency drives (VFDs) or employing inverter duty motors. Motor protection features, such as thermal protection and overload relays, help safeguard the motor against adverse effects caused by voltage and frequency variations. These measures ensure the reliable and efficient operation of electric motors under different voltage and frequency conditions.

electric motor

Can you explain the basic principles of electric motor operation?

An electric motor operates based on several fundamental principles of electromagnetism and electromagnetic induction. These principles govern the conversion of electrical energy into mechanical energy, enabling the motor to generate rotational motion. Here’s a detailed explanation of the basic principles of electric motor operation:

  1. Magnetic Fields: Electric motors utilize magnetic fields to create the forces necessary for rotation. The motor consists of two main components: the stator and the rotor. The stator contains coils of wire wound around a core and is responsible for generating a magnetic field. The rotor, which is connected to the motor’s output shaft, has magnets or electromagnets that produce their own magnetic fields.
  2. Magnetic Field Interaction: When an electric current flows through the coils in the stator, it generates a magnetic field. This magnetic field interacts with the magnetic field produced by the rotor. The interaction between these two magnetic fields results in a rotational force, known as torque, that causes the rotor to rotate.
  3. Electromagnetic Induction: Electric motors can also operate on the principle of electromagnetic induction. In these motors, alternating current (AC) is supplied to the stator coils. The alternating current produces a changing magnetic field that induces a voltage in the rotor. This induced voltage then generates a current in the rotor, which creates its own magnetic field. The interaction between the stator’s magnetic field and the rotor’s magnetic field leads to rotation.
  4. Commutation: In certain types of electric motors, such as brushed DC motors, commutation is employed. Commutation refers to the process of reversing the direction of the current in the rotor’s electromagnets to maintain continuous rotation. This is achieved using a component called a commutator, which periodically switches the direction of the current as the rotor rotates. By reversing the current at the right time, the commutator ensures that the magnetic fields of the stator and the rotor remain properly aligned, resulting in continuous rotation.
  5. Output Shaft: The rotational motion generated by the interaction of magnetic fields is transferred to the motor’s output shaft. The output shaft is connected to the load or the device that needs to be driven, such as a fan, a pump, or a conveyor belt. As the motor rotates, the mechanical energy produced is transmitted through the output shaft, enabling the motor to perform useful work.

In summary, the basic principles of electric motor operation involve the generation and interaction of magnetic fields. By supplying an electric current to the stator and utilizing magnets or electromagnets in the rotor, electric motors create magnetic fields that interact to produce rotational motion. Additionally, the principle of electromagnetic induction allows for the conversion of alternating current into mechanical motion. Commutation, in certain motor types, ensures continuous rotation by reversing the current in the rotor’s electromagnets. The resulting rotational motion is then transferred to the motor’s output shaft to perform mechanical work.

China Best Sales 0.12kw-315kw Y2 Series Three Phase Asynchronous Electric AC  Induction Motor for Water Pump, Air Compressor, Gear Reducer Fan Blower   vacuum pump diyChina Best Sales 0.12kw-315kw Y2 Series Three Phase Asynchronous Electric AC  Induction Motor for Water Pump, Air Compressor, Gear Reducer Fan Blower   vacuum pump diy
editor by CX 2023-11-17