SCB12 2000 kVA Cast Resin Dry Type Transformer
Product Advantages
High-Capacity Distribution Duty
Intended for large industrial, commercial or infrastructure load centers after the project demand and contingency strategy are confirmed.
Thermal Design Matters
AN or engineered AF cooling is selected from the load profile, temperature-rise requirement, altitude and available airflow.
Fault-Level Coordination
Specified impedance affects secondary short-circuit current and must coordinate with switchgear and protection settings.
Mechanical Interface Review
Transport route, lifting, room access, enclosure, bus or cable terminals and maintenance clearances should be approved before manufacture.
Project-Specific Test Package
Applicable routine tests and agreed documentation support final inspection and commissioning records.
SCB12 2000 kVA Cast Resin Dry Type Transformer
Product Introduction
The SCB12 2000 kVA cast resin dry type transformer is engineered for high-capacity indoor distribution where thermal performance, protection coordination and installation access require early review. At this rating, the transformer should be selected together with the room ventilation, cable or bus connection, upstream protection and low-voltage fault-duty study.
Typical Applications
Potential applications include large factories, campuses, data facilities, transport hubs and major commercial developments. Load criticality may justify evaluating multiple smaller transformers or redundancy instead of one unit; the system engineer should decide the architecture.
Typical Project Configuration
Model: SCB12
Rated Capacity: 2000 kVA
Type: Three-phase epoxy cast-resin dry type
Voltage: Project specific
Frequency: 50 Hz or 60 Hz
Cooling: AN or engineered AF
Impedance: Confirmed by system requirements
Testing: Applicable routine factory tests
Frequently Asked Questions
When should AF cooling be considered?
Forced-air cooling may be evaluated for the approved load profile, temperature rise and installation conditions; it is not a substitute for adequate room ventilation.
Why is the impedance important at 2000 kVA?
It influences regulation and available fault current, directly affecting protection and downstream switchgear ratings.
What mechanical data is needed?
Provide room layout, access route, cable or bus interface, terminal orientation, enclosure requirement and any maximum dimensional constraints.
Quotation Information
For the 2000 kVA design, submit the single-line diagram, load profile, voltage, frequency, vector group, required impedance, cooling duty, room ventilation data, cable or bus connection, access constraints, protection requirements and applicable standard.
