Transformers for Automotive Electronics

Frigate’s automotive transformers ensure power integrity by providing reinforced isolation, controlled parasitics, and high thermal stability for high-frequency, EMC-sensitive, safety-critical automotive systems. 

Transformers for Automotive Electronics

Supports ASIL B-D systems with >4 kVrms isolation, TIW windings, and partial discharge-resistant materials for long-term safety compliance. 

Operates from –40 °C to +150 °C using low-loss ferrites, litz windings, and thermally conductive encapsulants for thermal reliability. 

Withstands shock, vibration, and thermal cycling through potted coils, CTE-matched materials, and vibration-isolated, strain-relieved construction. 

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Preferred by OEMs and system designers for transformer sourcing

Our Products

Browse our transformer lineup built to support diverse voltage, insulation, and mounting needs across industries.

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Specialty Application Transformers
Power Transformers
Isolation & Safety Transformers
Instrument Transformers
High-Frequency & Switching Transformers
Core Type Transformers
Cooling & Construction Type Transformers
Pulse Transformers - IMG
Buck-Boost Transformers - IMG (3)
Voltage Stabilizer Transformers - IMG
Dry-Type Transformers - IMG (2)
Ferrite Core Transformers - IMG (3)
UPS & Inverter Transformers - IMG (3)
Control Transformers - IMG (4)
Audio Line Matching & Output Transformers - IMG (3)
Multi-Winding Transformers - img (2)
Cast Resin Transformers - IMG (3)
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Feedback from Transformer Clients

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Words from Clients

See how global OEMs and sourcing heads describe their experience with our scalable execution.

Automotive Power and Signal Isolation Applications

Transformers in automotive electronics enable controlled power transfer, galvanic isolation, and EMI mitigation across high-voltage, high-frequency, and safety-critical subsystems. 

Battery Management Systems (BMS)

Enables reinforced isolation and signal coupling between high-voltage battery strings and low-voltage control circuits in multi-cell monitoring architectures. 

Gate Drive Circuits in Traction Inverters

Provides isolated drive signal transmission for high-side IGBT/MOSFET control, maintaining dv/dt immunity and timing accuracy at high switching frequencies. 

Transformers for Automotive Electronics
Transformers for Automotive Electronics
Transformers for Automotive Electronics

High-Density Magnetic Integration

Frigate engineers transformers for space-constrained automotive systems using advanced core materials, optimized winding topologies, and thermally efficient layouts. 

Planar Architecture

Planar transformers with PCB windings enable uniform geometry, reduced Z-height, and improved thermal conduction in layered module assemblies.

EMI and Leakage Control

Symmetrical winding structures and embedded shields reduce flux leakage and suppress EMI in tightly packed electronic control environments.

Full-Spectrum Transformer Solutions

Engineered for high-reliability environments, our Automotive Electronics transformers deliver precise voltage regulation, low leakage current, and superior EMI suppression.

Ensuring Reliability in Automotive Electronics Transformers

Frigate ensures transformers for automotive electronics deliver peak performance, durability, and safety in dynamic vehicle environments. Each unit undergoes extensive technical evaluation to meet stringent industry standards. 

Load and Voltage Stability Testing
Transformers are tested for precise voltage regulation, current handling, and transient response to ensure consistent performance under varying automotive loads.
Thermal and Vibration Endurance
Units undergo high-temperature cycles, vibration, and shock simulations replicating road conditions to verify durability in automotive environments.
Insulation Integrity Assessment
Dielectric strength, insulation resistance, and breakdown testing confirm safety and protect sensitive automotive circuits from electrical failures.

Insights from Transformer Manufacturing Experts

Read technical articles on transformer integration, compliance standards and sourcing strategies across industry-specific use cases.

Having Doubts? Our FAQ

Check all our Frequently Asked Questions

How does Frigate control leakage inductance in transformers for high-speed automotive gate drive circuits?

Frigate uses tight coupling between primary and secondary windings through optimized winding geometry and interleaving techniques. This reduces leakage inductance, which helps maintain fast switching edges and timing accuracy. Lower leakage also minimizes voltage overshoot in IGBT or MOSFET gate drives. Each design is verified through frequency-domain analysis and high-speed simulation. 

How does Frigate ensure transformer insulation integrity under long-term high-voltage automotive use?

Frigate applies triple-insulated wire (TIW) and high-CTI insulation materials to meet reinforced isolation up to 4 kVrms. All designs conform to ISO 26262 insulation coordination and IEC 60664 clearance/creepage requirements. Accelerated life testing is performed under temperature-humidity-bias conditions. Partial discharge testing ensures stable dielectric performance over system lifetime. 

What steps does Frigate take to reduce EMI in transformers for automotive ECUs?

Frigate uses shield windings, low-capacitance winding arrangements, and symmetrical layouts to suppress conducted and radiated EMI. Transformers are tested for compliance with CISPR 25 and ISO 11452 standards. High-frequency core materials with low loss are selected to reduce harmonic distortion. Custom filtering and simulation tools are used in the design phase. 

How does Frigate validate mechanical reliability of transformers for under-hood automotive applications?

Transformers are built with vibration-isolated housings, strain-relieved leads, and mechanically reinforced coil forms. Frigate tests each design to IEC 60068 shock and vibration profiles. Thermal cycling and fatigue modeling ensure long-term mechanical integrity. Designs are qualified for environments from –40 °C to +150 °C with high humidity and chemical exposure. 

How does Frigate manage transformer saturation in EV inverter systems?

Frigate selects magnetic cores with high saturation flux density and uses center-tapped winding strategies to avoid flux imbalance. Inrush and DC offset conditions are simulated to prevent magnetic saturation. Core selection is based on B-H curve stability under thermal load. Each transformer is validated through real-time inverter stress tests. 

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LOCATIONS

Registered Office

10-A, First Floor, V.V Complex, Prakash Nagar, Thiruverumbur, Trichy-620013, Tamil Nadu, India.

Operations Office

9/1, Poonthottam Nagar, Ramanandha Nagar, Saravanampatti, Coimbatore-641035, Tamil Nadu, India. ㅤ

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