SBIR-STTR Award

Interface-Engineered micro-Ferro and nano-Ferri Composites for Present and Future Power Electronics
Award last edited on: 4/10/2022

Sponsored Program
STTR
Awarding Agency
DOD : DARPA
Total Award Amount
$1,703,371
Award Phase
2
Solicitation Topic Code
HR001120S0019-22
Principal Investigator
Scott Gillette

Company Information

Metamagnetics Inc

115 Flanders Road Suite 135
Westborough, MA 01581
   (781) 562-0756
   trudell@metamagneticsinc.com
   www.mtmgx.com

Research Institution

Northeastern University

Phase I

Contract Number: HR001121C0084
Start Date: 3/22/2021    Completed: 9/14/2021
Phase I year
2021
Phase I Amount
$224,517
In this DARPA STTR Phase I program, Metamagnetics Inc., in collaboration with Northeastern University, proposes to address the challenges associated with performance of transformer and inductor materials operating at high power and frequencies equal to or greater than 50 kHz by developing ferromagnetic – ferrimagnetic composites with high saturation magnetization, high permeabilities, and ultralow losses. These innovative composites, referred to here as m-ferro + n-ferri composites, consist of a dense collection of aligned ferromagnetic metallic microfibers coated with insulating and magnetically permeable ferrite particles forming a high-density composite core. Processing will be carried out via slip casting as desired engineered shapes. High density finished products or subcomponents will be assembled into finished products by additive manufacturing practices. The goal is to demonstrate feasibility of new materials and manufacturing methods for soft magnet materials having improved thermal performance, lower losses at high switching frequencies, and higher power ratings in smaller form factors for use as inductors and transformers in power electronic applications.

Phase II

Contract Number: HR001122C0076
Start Date: 11/8/2021    Completed: 4/5/2025
Phase II year
2022
Phase II Amount
$1,478,854
In this DARPA STTR Phase II program, Metamagnetic Inc., in collaboration with Northeastern University, proposes to address the challenges associated with performance of transformer and inductor materials operating at high power and frequencies equal to or greater than 50 kHz by developing ferromagnetic – ferrimagnetic composites with high saturation magnetization, high permeabilities, and ultralow losses. These innovative composites, referred to here as m-ferro + n-ferri composites, consist of a dense collection of aligned ferromagnetic metallic microfibers coated with insulating and magnetically permeable ferrite particles forming a high-density composite core. Processing will be carried out via slip casting as desired engineered shapes. High density finished products or subcomponents will be assembled into finished products by additive manufacturing practices. The goal is to demonstrate feasibility of new materials and manufacturing methods for soft magnet materials having improved thermal performance, lower losses at high switching frequencies, and higher power ratings in smaller form factors for use as inductors and transformers in power electronic applications.