ITP Series

  • High Current Toroidal Inductor
  • Inductance: Up to 1150 uH
  • DCR: 300 mΩ Max
  • ISAT : Up to 20 A

I02 Series

  • Compact Design
  • High Saturation Current
  • Inductance: Up to 1.98 μH
  • DCR: 3.00 mΩ Max
  • ISAT : Up to 60 A

I03 Series

  • Compact Design
  • High Saturation Current
  • Inductance: Up to 6.16 μH
  • DCR: 7.66 mΩ Max
  • ISAT: Up to 50 A

Technical Highlights

  • Energy storage for high-current power applications
  • Powdered iron core for soft saturation and stable DC bias performance
  • High saturation current capability for demanding load conditions
  • Low DCR windings to minimize conduction losses
  • Suitable for typical switching-frequency ranges found in SMPS designs
  • Toroidal and molded core options for controlled EMI performance
  • Robust through-hole construction for mechanical stability
  • Broad inductance range for flexible design requirements
  • Optimized for efficient power conversion stages

Typical Applications

  • DC-DC converters and voltage regulator modules (VRMs)
  • Buck, boost, and POL converters
  • High-current output filtering and energy storage
  • Industrial and telecom power systems
  • Server and distributed power architectures
  • Embedded and board-level power supplies
  • General high-current filtering in switching regulators
Part Number Drive Inductance (μH, Min) Turns Ratio (Pri:Sec1:Sec2) DCR (mΩ, Max) ET Product (V-μs, Max) Leakage Inductance (nH, Min) SRF (MHz,Typ) Hi Pot (Drive:Gate)(Vdc) Length (mm, Max) Width (mm, Max) Height (mm, Max) Creepage (mm, Min) Mounting Type Pick & Place TI Product Compatibility Infineon Product Compatibility Samples Availability Mouser Availability
GT02-110-006 Sample 135 1:1 228:45:00 6.9 200 13.3 1500 8.60 6.80 --- SMD green-circle-tick --- --- green-circle-tick green-circle-tick green-circle-tick
GT02-110-006 Sample 136 1:1 228:45:00 10.2 400 13.3 1500 8.60 6.80 --- SMD green-circle-tick --- --- green-circle-tick green-circle-tick green-circle-tick
GT02-110-008 Sample 135 1:1 228:45:00 19.4 500 13.3 1500 8.60 6.80 --- SMD green-circle-tick --- --- green-circle-tick green-circle-tick green-circle-tick
GT02-110-006 Sample 135 1:1 228:45:00 34.6 600 13.3 1500 8.60 6.80 --- SMD green-circle-tick --- --- green-circle-tick green-circle-tick green-circle-tick
GT02-110-014 Sample 135 1:1 228:45:00 12.8 800 13.3 1500 8.60 6.80 --- SMD green-circle-tick --- --- green-circle-tick green-circle-tick green-circle-tick
GT02-110-019 Sample 138 1:1 228:45:00 70.6 200 13.3 1500 8.60 6.80 --- SMD green-circle-tick --- --- green-circle-tick green-circle-tick green-circle-tick
GT02-110-010 Sample 140 1:1 228:45:00 6.9 200 13.3 1500 8.60 6.80 --- SMD green-circle-tick --- --- green-circle-tick green-circle-tick green-circle-tick

Custom Solutions & Capabilities

ICE develops custom through-hole high current inductors tailored for demanding power conversion stages requiring robust mechanical stability and strong DC bias performance. Core selection, wire gauge, winding configuration, and saturation current can be optimized to meet specific efficiency, thermal, and space constraints.

From powdered iron to toroidal geometries, we engineer inductors to deliver controlled EMI, predictable inductance under load, and low DCR performance. Custom inductance values and current ratings are available to support VRMs, industrial power supplies, and high-current filtering applications.

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Frequently Asked Questions (FAQs)

What defines saturation current in powdered iron cores?

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Saturation is gradual; inductance decreases progressively under DC bias.

How does DCR impact efficiency?

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Higher DCR increases conduction losses and thermal rise.

Why choose toroidal geometry?

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Toroids confine magnetic flux, reducing EMI radiation.

How does DC bias affect inductance?

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Inductance decreases with increasing DC current due to permeability shift.

What causes audible noise?

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Magnetostriction and mechanical vibration under ripple current.

How do I select inductance for ripple targets?

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Based on allowable ripple current and switching frequency.

Can they operate at high ambient temperatures?

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Yes, within rated thermal limits and proper derating.

Difference between saturation and rated current?

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Rated current may be thermally limited; saturation current is magnetically limited.

How does core material influence efficiency?

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Powdered iron supports higher DC bias with stable performance.

Are they suitable for continuous high-current operation?

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Yes, when selected within thermal and magnetic ratings.