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CEEG 24-Pulse Rectifier Dry-Type Transformer

Brand: CEEG
Type: Dry-Type Transformer
Rated Capacity: 200kVA-2500kVA
Vector Group: Dyn11, Yyn0, Dd0
Winding Type: Multi-winding
Phase: Three-Phase
Service: Customized Service
Nature of Business: Manufacturer
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1. Safety and Reliability: The transformer is constructed using non-toxic, flame-retardant epoxy resin, offering high mechanical strength, flame resistance, fire prevention, and environmental friendliness.

2. Convenient Installation: Dry-type rectifier transformers are delivered as complete units, allowing for immediate installation and efficient operation.

3. High Overload Capacity: The transformer's insulation is rated at class H , with a heat resistance temperature reaching 180°C. It can handle maximum overloads of up to 200%.

4. Low Noise: Noise levels are reduced by 3-5 decibels compared to national standards.

5. Cost Savings: Dry-type rectifier transformers can be installed in conjunction with electrical equipment such as rectifiers, eliminating the need for a separately designed distribution room. This saves space and reduces initial investments.

6. Diverse Range: Our product offerings are comprehensive, covering specialized transformers in various fields, including rectifier transformers, electric furnace transformers, and variable frequency transformers.

7. Tailor-Made Solutions: We can accommodate specific customer requirements, offering flexible design and rapid responses.

8. Authoritative Certification: Our products have received authoritative certification from the National Electrical Product Quality Supervision and Inspection Center.

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24-Pulse Rectifier Dry-Type Transformer

Model

Capacity(KVA)

Rated Voltage(KV)

Tapping Range

Vector Group

Short Circuit Impedance

Efficiency

Weight(kg)

Gauge(mm)

Net Side

Valve Side

ZBSCB10

200

10
6.3

0.4
0.66
0.69

2*2.5%

Dyn11
Yyn0
Dd0

4.0

≥0.97

1250

550 x 550

ZBSCB10

250

4.0

≥0.97

1430

550 x 550

ZBSCB10

315

4.0

≥0.97

1570

660 x 660

ZBSCB10

400

4.0

≥0.98

1750

660 x 660

ZBSCB10

500

4.0

≥0.98

1970

820 x 820

ZBSCB10

630

6.0

≥0.98

2250

820 x 820

ZBSCB10

800

6.0

≥0.98

2590

820 x 820

ZBSCB10

1000

6.0

≥0.98

2940

820 x 820

ZBSCB10

1250

6.0

≥0.98

3420

820 x 820

ZBSCB10

1600

6.0

≥0.98

3830

820 x 820

ZBSCB10

2000

6.0

≥0.99

4500

820 x 820

ZBSCB10

2500

6.0

≥0.99

5350

820 x 820

ZBSCB10

500

35
36
37
38.5

6.0

≥0.98

2680

820 x 820

ZBSCB10

630

6.0

≥0.98

3300

820 x 820

ZBSCB10

800

6.0

≥0.98

3810

820 x 820

ZBSCB10

1000

6.0

≥0.98

4650

1070 x 1070

ZBSCB10

1250

6.0

≥0.98

5250

1070 x 1070

ZBSCB10

1600

6.0

≥0.98

5750

1070 x 1070

ZBSCB10

2000

6.0

≥0.99

6380

1070 x 1070

ZBSCB10

2500

6.0

≥0.99

7390

1070 x 1070

production ability.pngCEEG production ability 21-cidu.jpg

1. Reliability of Insulation Technology

Our research spans from initial two-dimensional electric field simulations, three-dimensional electric field measurements, and impact characteristic measurements to later-stage theoretical analysis and simulated experiments on the main insulation, longitudinal insulation, end insulation, insulation of leads, and coil withstand voltage characteristics of transformers. Through years of verification using various methods, we ensure the reliability of transformer insulation.

2. Calculation of leakage magnetic field and reduction of stray loss

Dedicate specialized efforts to calculating and measuring transformer leakage magnetic fields. The research includes shielding structures for leakage magnetic fields, calculations for transformer dynamics and thermal stability, and improvements in transformer dynamic and thermal stability to guarantee accurate calculations and reduced stray losses, thereby enhancing transformer dynamic stability.

3. Precise Analysis of Coil Temperature Fields

Collaborating with numerous domestic universities, we jointly developed programs for calculating coil temperature fields. These programs calculate loss distribution in coils, including resistive losses, eddy current losses in different directions, and circulating losses between parallel conductors, as well as flow field cooling conditions. This enables the accurate calculation of coil temperature distribution and hotspot temperature rises, allowing us to take measures to effectively control hotspot temperature rises that impact transformer lifespan.

4. Reducing Local Discharge in Transformers

Electric field strengths at various locations have undergone numerical analysis during the design phase and have been strictly controlled. Additionally, compliance with manufacturing quality, the reliability of processing methods, and the reasonableness of operating techniques effectively control local discharges in transformers.

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CEEG will offer custom quotes and powerful solutions to meet your needs. Send us your details and we'll get back to you as soon as possible.

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