Three-phase Explosion-proof Permanent Magnet Synchronous Motor
Three-phase Explosion-proof Permanent Magnet Synchronous Motor - Image 2

Three-phase Explosion-proof Permanent Magnet Synchronous Motor

The three-phase explosion-proof permanent magnet synchronous motor is a newly developed and designed explosion-proof permanent magnet synchronous motor based on a permanent magnet synchronous motor. This motor is not only efficient and energy-efficient, but also simple in structure, reliable in operation, and can completely replace YB2, YB3, and other blast-proof asynchronous motors. With the explosion-proof mark of Exd II BT4Gb, this motor can be applied to petroleum, chemical industry, grain and oil, paper-making, medicine, textile, and other flammable and explosive occasions.

The products have obtained the explosion-proof certificate issued by the National Centre for Supervision and Inspection of the Quality of Explosion-proof Electrical Products and the production license issued by the State Bureau of Quality and Technical Supervision.

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Product details

Feature

  1. High efficiency, rated to meet the National Energy Efficiency Standard for Grade
  2. High power factor, no need for reactive power compensation;
  3. Good synchronization, no rotational difference, no speed loss, constant speed;
  4. Low noise and vibration, more stable and reliable operation;
  5. Low-temperature rise, which can reduce the temperature ramping by about 10-20K compared to asynchronous blast-proof motors;
  6. Energy saving and power saving, the comprehensive power saving rate of up to 8-20%, depending on the load;
  7. Good control performance, fast dynamic response, and accurate speed control.

Conditions of Use
Ambient temperature: -15℃~40
Altitude: not more than 1000 meters
Rated voltage: 380V, 660V, other voltages are optional.
Rated frequency: 50Hz, 60Hz, other frequencies are optional.
Working system: continuous working system (S1)
Protection class: IP55
Insulation grade: F
Cooling method: IC411/IC416
Connection method: Y

 

Specification

Motor Model Rated Output kW Rated Current Rated Torque Efficiency (%) Power Factor Rated speed Rated Frequency Hz
TBYC-801-2 0.75 1.3 2.4 84.9 0.95 3000 100
TBYC-802-2 1.1 1.9 3.5 86.7 0.95 3000 100
TBYC-90S-2 1.5 2.4 4.7 87.5 0.95 3000 100
TBYC-90L-2 2.2 3.8 7 89.1 0.95 3000 100
TBYC-100L-2 3 5.1 9.5 89.7 0.95 3000 100
TBYC-112M-2 4 6.6 12.7 90.3 0.95 3000 100
TBYC-132S1-2 5.5 9.2 17.5 91.5 0.95 3000 100
TBYC-132S2-2 7.5 10.9 23.8 92.1 0.95 3000 100
TBYC-160M1-2 11 19.5 35 93 0.95 3000 150
TBYC-160M2-2 15 26.7 47.7 93.4 0.95 3000 150
TBYC-160L-2 18.5 32 58.9 93.8 0.95 3000 200
TBYC-180M-2 22 37.4 70 94.4 0.95 3000 200
TBYC-200L1-2 30 51 95.5 94.5 0.95 3000 200
TBYC-200L2-2 37 61.3 117.8 94.8 0.95 3000 200
TBYC-225M-2 45 75 143.3 95.1 0.95 3000 200
TBYC-250M-2 55 95 175 95.4 0.95 3000 100
TBYC-280S-2 75 125 238.7 95.6 0.95 3000 100
TBYC-280M-2 90 151 286.5 95.8 0.95 3000 100
TBYC-315S-2 110 179 350 96 0.95 3000 200
TBYC-315M-2 132 206 420 96 0.95 3000 200
TBYC-315L1-2 160 262 509 96.2 0.95 3000 200
TBYC-315L2-2 200 330 636.7 96.3 0.95 3000 150
TBYC-801-4 0.55 0.96 3.5 84.5 0.95 1500 50
TBYC-802-4 0.75 1.3 4.7 85.6 0.95 1500 50
TBYC-90S-4 1.1 1.9 7 87.4 0.95 1500 50
TBYC-90L-4 1.5 2.6 9.5 88.1 0.95 1500 50
TBYC-100L1-4 2.2 3.7 14 89.7 0.95 1500 50
TBYC-100L2-4 3 5.1 19.1 90.3 0.95 1500 50
TBYC-112M-4 4 6.6 25.4 90.9 0.95 1500 50
TBYC-132S-4 5.5 9 35 92.1 0.95 1500 50
TBYC-132M-4 7.5 12.2 47.7 92.6 0.95 1500 50
TBYC-160M-4 11 18.6 70 93.6 0.95 1500 50
TBYC-160L-4 15 23.9 95.5 94 0.95 1500 50
TBYC-180M-4 18.5 32 117.7 94.3 0.95 1500 100
TBYC-180L-4 22 37 140 94.7 0.95 1500 100
TBYC-200L-4 30 50 191 95 0.95 1500 100
TBYC-225S-4 37 65 235.6 95.3 0.95 1500 100
TBYC-225M-4 45 71 286.5 95.6 0.95 1500 100
TBYC-250M-4 55 85.4 350 95.8 0.95 1500 100
TBYC-280S-4 75 117 477.5 96 0.95 1500 100
TBYC-280M-4 90 152 573 96.2 0.95 1500 100
TBYC-315S-4 110 183 700 96.4 0.95 1500 100
TBYC-315M-4 132 209 840.4 96.5 0.95 1500 100
TBYC-315L1-4 160 260 1018.6 96.5 0.95 1500 100
TBYC-315L2-4 200 352 1273.3 96.6 0.95 1500 100

 

Motor Mode Rated Power kW Rated Current Rated Torque Efficiency (%) Power factor Rated speed Rated Frequency Hz
TBYC-802-6 0.55 1 5.2 82.4 0.95 0 33.3
TBYC-90S-6 0.75 1.3 7.2 86.8 0.95 1000 33.3
TBYC-90L-6 1.1 1.9 10.5 88.2 0.95 1000 33.3
TBYC-100L-6 1.5 2.7 14.3 89.4 0.95 1000 33.3
TBYC-112M-6 2.2 3.9 21 90.5 0.95 1000 66.7
TBYC-132S-6 3 5 28.6 91.5 0.95 1000 50
TBYC-132M1-6 4 6.6 38.2 92.4 0.95 1000 50
TBYC-132M2-6 5.5 9.5 52.5 93.1 0.95 1000 50
TBYC-160M-6 7.5 12.5 71.6 93.7 0.95 1000 50
TBYC-160L-6 11 18.5 105 94.3 0.95 1000 66.7
TBYC-180L-6 15 25 143.3 94.7 0.95 1000 66.7
TBYC-200L1-6 18.5 32 176.7 95.1 0.95 1000 66.7
TBYC-200L2-6 22 36.5 210 95.4 0.95 1000 66.7
TBYC-225M-6 30 49 286.5 95.7 0.95 1000 66.7
TBYC-250M-6 37 61 353.3 95.9 0.95 1000 66.7
TBYC-280S-6 45 71 430 96 0.95 0 66.7
TBYC-280M-6 55 86 525.3 96.1 0.95 1000 66.7
TBYC-315S-6 75 123 716.3 96.2 0.95 1000 66.7
TBYC-315M-6 90 141 860 96.2 0.95 1000 66.7
TBYC-315L1-6 110 174 1050.5 96.3 0.95 1000 66.7
TBYC-315L2-6 132 210 1260.6 96.3 0.95 1000 66.7
TBYC-315L3-6 160 248 1528 96.3 0.95 1000 66.7
TBYC-315L4-6 200 320 1910 96.4 0.95 1000 66.7
TBYC-112M-8 1.5 2.8 19.1 90 0.95 750 50
TBYC-132S-8 2.2 3.8 28 90 0.95 750 37.5
TBYC-132M-8 3 5.2 38.2 91 0.95 750 37.5
TBYC-160M1-8 4 7.2 51 91.8 0.95 750 50
TBYC-160M2-8 5.5 9.9 70 92.6 0.95 750 50
TBYC-160L-8 7.5 13.4 95.5 93.2 0.95 750 50
TBYC-180L-8 11 19.5 140 93.7 0.95 750 50
TBYC-200L-8 15 26.6 191 94.2 0.95 750 50
TBYC-225S-8 18.5 32.7 235.6 94.6 0.95 750 50
TBYC-225M-8 22 38.3 280 94.9 0.95 750 50
TBYC-250M-8 30 52.7 382 95.1 0.95 750 50
TBYC-280S-8 37 65 471 95.3 0.95 750 50
TBYC-280M-8 45 75.8 573 95.6 0.95 750 50
TBYC-315S-8 55 96.2 700 95.6 0.95 750 50
TBYC-315M-8 75 122 955 95.7 0.95 750 50
TBYC-315L1-8 90 157 1146 95.7 0.95 750 50
TBYC-315L2-8 110 185.7 1400 95.7 0.95 750 50
TBYC-315L3-8 132 200 1680.8 95.8 0.95 750 50
TBYC-315L4-8 160 270 2037 95.8 0.95 750 50

 

When the hazardous-area classification is still being established, reviewing related hazardous-area motor options may help structure the documentation request.

Buyer Decision Guide

What Engineers Should Confirm for This Configuration

The installation classification and the proposed model\'s actual markings must be checked together. An explosion-proof label alone does not establish project compliance.

The specifications and included components for this exact product are described above. The guidance below supports sourcing decisions; it is not a claim that every option or capability is available for this SKU.

01

Area Classification

Identify the applicable gas or dust zone and equipment group.

02

Required Marking

Verify the model's exact Ex marking, temperature class and permitted conditions.

03

Load & Speed

Define duty, speed range, acceleration and required torque.

04

Electrical & Drive

Review supply, inverter arrangement and cable interfaces.

05

Thermal & Mechanical

Confirm ambient range, cooling, mounting and surface-temperature constraints.

06

Evidence & Approval

Request model-specific documentation and local authority or project review as applicable.

Customization & Application & System Fit

Confirm the Operating Conditions Before Quotation

Mechanical interfaces, operating duty, cooling and controls affect whether a configuration is suitable. Use the actual model information when discussing project requirements.

Hazardous Area

Provide the site's classified zone or division and gas or dust exposure details.

Motor Duty

Share required torque, speed, load and supply conditions.

Mechanical Integration

Confirm installation envelope, cable entry and driven equipment interface.

Document Review

Request exact nameplate marking, applicable certification and test evidence for the proposed model.

Engineering Evidence & Compliance

Check the Actual Ex Marking and Project Documentation

Approval requirements depend on the target location, hazardous-area designation and exact motor configuration. Never infer ATEX, IECEx or any other certification from the category name.

Technical Documentation

Ask for applicable model ratings and outline drawings.

Verification

Define tests and acceptance criteria appropriate to the application.

Shipment Planning

Confirm packaging, handling and destination requirements.

RFQ Minimum Input

What to Send for Technical Evaluation

Provide the following operating and integration details so the proposed configuration can be evaluated.

  1. Product reference or application description
  2. Required operating duty and load
  3. Electrical or mechanical interface details
  4. Site environment and installation constraints
  5. Required tests and technical documentation
  6. Quantity, destination and project timeline
Engineering Review & Delivery

From Application Review to Production Confirmation

A practical engineering procurement sequence depends on defining the application, reviewing a suitable configuration and agreeing the evidence required.

01

Requirement Review

Send application and technical data.

02

Configuration Discussion

Review candidate models, interfaces and constraints.

03

Sample & Validation

Agree drawings, tests and acceptance criteria if required.

04

Production & Delivery

Confirm quotation, scope, inspection and shipment details.

Operating limits, documented ratings, test evidence, delivery scope and quotation terms must be confirmed for the exact configuration.

Engineering Inquiry

Discuss Your Motor or Magnetic Project

Share your intended application, torque or load requirements, operating conditions, interface drawings and project timing.

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