SBIR-STTR Award

A Fundamentally New X-ray Driven Manufacturing System for Recycling Materials
Award last edited on: 2/11/2010

Sponsored Program
SBIR
Awarding Agency
NSF
Total Award Amount
$599,995
Award Phase
2
Solicitation Topic Code
-----

Principal Investigator
David B Spenser

Company Information

wTe Corporation (AKA: Waste Energy Technology Corporation)

7 Alfred Circle
Bedford, MA 01730
   (781) 275-6400
   ccfwte@aol.com
   www.wte.com
Location: Multiple
Congr. District: 06
County: Middlesex

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
2006
Phase I Amount
$99,997
This Small Business Innovation Research (SBIR) Phase I research develops a method of unambiguously sorting small chips of superalloys at high speeds. Spectramet Technology is a platform optoelectronic manufacturing technology for analyzing copper-rich, aluminum-rich, zinc-rich, cobalt and nickel-rich alloys at previously unachievable accuracy and high speeds into known alloys to meet smelter specifications. The technology platform is not only aimed at sorting alloys into base metal groups, but can also sort the alloys by alloy type. One part of the Spectramet Technology focuses on sorting valuable superalloys such as nickel-, cobalt-, and titanium based metals. This proposal is aimed at extending the existing technology with an entirely new innovative sensor approach to process particles one-thousandth the size of prior applications and to identifying and sorting those particles at speeds thousands of times faster than has ever been done before. The project will focus on sorting clean machine chips from superalloy scrap with 100% inspection, identification and sorting on a particle-by-particle basis. Contaminants that would make the chips unusable for recycling into the original alloy will be removed prior to reuse. The broader impact of this research will be to reduce the amount of strategic superalloy metal that is downgraded to inferior product uses and applications in the U.S. so that this very valuable scrap metal can be recycled into its highest value application, namely so it can be used again as superalloy feedstock for making new superalloy parts. The result of recycling this material rather than downgrading it to lower value applications will be reduced U.S. dependence on supplies of strategic virgin metals recovered at primary refineries from ore (most of which are purchased abroad), substantial energy savings from use of scrap rather than ore and virgin materials, and greatly reduced emissions because secondary smelting consumes much less energy than primary production followed by remelting

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
2008
Phase II Amount
$499,998
This Small Business Innovation Research (SBIR) Phase II project will put into service a prototype/pilot facility to assess the technical and commercial feasibility of unambiguously sorting small chips of super-alloys at high speeds. Spectramet Technology is a platform optoelectronic manufacturing technology for analyzing metals and alloys at previously unachievable accuracy and high speeds into known alloys to meet smelter specifications. The technology platform is not only aimed at sorting alloys into base metal groups, but can also sort the alloys by alloy type. One part of the Spectramet Technology focuses on sorting valuable super-alloys such as nickel-, cobalt-, and titanium based metals. This proposal is aims at extending the existing technology with an entirely new innovative sensor approach to process particles one-thousandth the size of prior applications and to identifying and sorting those particles at speeds thousands of times faster than has ever been done before. The broader impact/commercial potential from this technology will be reducing the amount of strategic super-alloy metal that is downgraded to inferior product uses and applications in the U.S. so that this very valuable scrap metal can be recycled into its highest value application, so it can be used again as super-alloy feedstock for making new super-alloy parts. The result of recycling this material rather than downgrading it to lower value applications will be reduced U.S. dependence on supplies of strategic virgin metals recovered at primary refineries from ore (most of which are purchased abroad), substantial energy savings from use of scrap rather than ore and virgin materials, and greatly reduced emissions because secondary smelting consumes much less energy than primary production