MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

FERRITE CORE TOROID 19NH MPP

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

FERRITE CORE TOROID 19NH MPP

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

FERRITE CORE TOROID 28NH MPP

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

MPP Cores

Low Losses for High Current Inductors

MPP cores possess many outstanding magnetic characteristics, such as high resistivity, low hysteresis and eddy current losses, excellent inductance stability after high DC magnetization or under high DC bias conditions and minimal inductance shift up to 2000 gauss under AC conditions. Applications for MPP cores include; Flyback Transformers, Buck/Boost and , Inductors, In-Line Noise Filters, High Q Filters, and Resonant Circuits.

FERRITE CORE TOROID 30NH MPP

FERRITE CORE TOROID 16NH MPP

FERRITE CORE TOROID 32NH MPP

FERRITE CORE TOROID 18NH MPP

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

FERRITE CORE TOROID 28NH HIGH FL

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

FERRITE CORE TOROID 394NH HI FLX

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

FERRITE CORE TOROID 425NH HI FLX

High Flux Cores

High Saturation Flux Density for High Power Applications

High Flux cores have saturation flux density that is twice that of MPP and three times or more that of ferrite. As a result, High Flux cores can support significantly more DC bias current or AC flux density. The high saturation flux density (15,000 gauss) and relatively low losses of High Flux cores make them quite useful for applications involving high power, high DC bias, or high AC bias at high power frequencies such as Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers.

FERRITE CORE TOROID 56NH EDGE

FERRITE CORE TOROID 43NH

FERRITE CORE TOROID 61NH EDGE

Edge^® Cores

Excellent DC Bias Performance for Compact Design

Designed for cutting edge performance, Edge® cores offer exceptional DC bias performance. When compared with High Flux, Edge displays approximately 40% lower losses and 30% improvement in DC bias. Applications include Rack Mount Power Supplies, Telecom Servers, Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers. Choose Edge for highest efficiency.

Edge^® Cores

Excellent DC Bias Performance for Compact Design

Designed for cutting edge performance, Edge® cores offer exceptional DC bias performance. When compared with High Flux, Edge displays approximately 40% lower losses and 30% improvement in DC bias. Applications include Rack Mount Power Supplies, Telecom Servers, Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers. Choose Edge for highest efficiency.

Edge^® Cores

Excellent DC Bias Performance for Compact Design

Designed for cutting edge performance, Edge® cores offer exceptional DC bias performance. When compared with High Flux, Edge displays approximately 40% lower losses and 30% improvement in DC bias. Applications include Rack Mount Power Supplies, Telecom Servers, Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers. Choose Edge for highest efficiency.

Edge^® Cores

Excellent DC Bias Performance for Compact Design

Designed for cutting edge performance, Edge® cores offer exceptional DC bias performance. When compared with High Flux, Edge displays approximately 40% lower losses and 30% improvement in DC bias. Applications include Rack Mount Power Supplies, Telecom Servers, Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers. Choose Edge for highest efficiency.

Edge^® Cores

Excellent DC Bias Performance for Compact Design

Designed for cutting edge performance, Edge® cores offer exceptional DC bias performance. When compared with High Flux, Edge displays approximately 40% lower losses and 30% improvement in DC bias. Applications include Rack Mount Power Supplies, Telecom Servers, Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers. Choose Edge for highest efficiency.

Edge^® Cores

Excellent DC Bias Performance for Compact Design

Designed for cutting edge performance, Edge® cores offer exceptional DC bias performance. When compared with High Flux, Edge displays approximately 40% lower losses and 30% improvement in DC bias. Applications include Rack Mount Power Supplies, Telecom Servers, Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers. Choose Edge for highest efficiency.

Edge^® Cores

Excellent DC Bias Performance for Compact Design

Designed for cutting edge performance, Edge® cores offer exceptional DC bias performance. When compared with High Flux, Edge displays approximately 40% lower losses and 30% improvement in DC bias. Applications include Rack Mount Power Supplies, Telecom Servers, Switching Regulator Inductors, In-Line Noise Filters, , , and Pulse Transformers. Choose Edge for highest efficiency.