All

AF161-089	  Development of Flat Lens Technology
January 5,2016

AF161-089 Development of Flat Lens Technology

  • Release Date:12-11-2015
  • Open Date:01-11-2016
  • Due Date:02-17-2016
  • Close Date:02-17-2016

Develop an ultra thin, flat lens that will focus light in the visible region, without the discontinuities imparted by a Fresnel lens

AF161-005	  Heterogeneous Porous Media for Thermal Transport Mitigation in Hypersonics
January 5,2016

AF161-005 Heterogeneous Porous Media for Thermal Transport Mitigation in Hypersonics

  • Release Date:12-11-2015
  • Open Date:01-11-2016
  • Due Date:02-17-2016
  • Close Date:02-17-2016

Design and develop thermal insulators containing thermal radiation inhibitors for reusable application at temperature exposures exceeding 1650K over one hour, and highest possible heat load configuration that is pertinent of hypersonic platforms.

A16-083	Laser Protection for Day Cameras
January 5,2016

A16-083 Laser Protection for Day Cameras

  • Release Date:12-11-2015
  • Open Date:01-11-2016
  • Due Date:02-17-2016
  • Close Date:02-17-2016

Develop technology approaches to protect vehicle vision system day cameras from being damaged significantly by pulsed lasers with wavelengths in the visible spectrum.

A16-039	Thin Film High-k Dielectric Semiconductor Materials Development for IRFPAs
January 5,2016

A16-039 Thin Film High-k Dielectric Semiconductor Materials Development for IRFPAs

  • Release Date:12-11-2015
  • Open Date:01-11-2016
  • Due Date:02-17-2016
  • Close Date:02-17-2016

The goal is to develop a semiconductor material that exhibits properties of high k dielectric constant over a wide operating temperature range, low leakage current, high breakdown voltage, and provide very low 1/f noise and RTS noise characteristics for Readout Integrated Circuit (ROIC) capacitor implementation. In addition, the material should also be of good producibility, good reliability, and compatible with the current readout fabrication technology.

A16-020 Low-Loss Commercial Deposition Technology for Thick Ferrites and Ferrite/Insulator Films on Printed Circuit Boards
January 5,2016

A16-020 Low-Loss Commercial Deposition Technology for Thick Ferrites and Ferrite/Insulator Films on Printed Circuit Boards

  • Release Date:12-11-2015
  • Open Date:01-11-2016
  • Due Date:02-17-2016
  • Close Date:02-17-2016

The goal of the research is to develop a low-temperature spin spray deposition of low-loss, high quality nanocrystalline ferrite films and thick ferrite/insulator layers for non-reciprocal and tunable RF device circuits integrated on large scale printed circuit board (PCB) panels.

A16-014	Laser Nanostructured Surfaces for Armament Applications
January 4,2016

A16-014 Laser Nanostructured Surfaces for Armament Applications

  • Release Date:12-11-2015
  • Open Date:01-11-2016
  • Due Date:02-17-2016
  • Close Date:02-17-2016

To develop laser nanostructuring technologies for durable, anti-corrosive, self-cleaning, hydrophobic surfaces.

NIH: Type 1 Diabetes - Development of New Technologies and Bioengineering Solutions for the Advancement of Cell Replacement Therapies
November 24,2015

NIH: Type 1 Diabetes - Development of New Technologies and Bioengineering Solutions for the Advancement of Cell Replacement Therapies

  • Release Date:11-19-2015
  • Open Date:11-19-2015
  • Due Date:06-28-2016
  • Close Date:06-28-2016

This Funding Opportunity Announcement (FOA) invites Small Business Innovation Research (SBIR) grant applications for funding to perform research leading to the development of innovative technologies that may advance progress toward more effective cell replacement therapies for type 1 diabetes (T1D).

DOE 26. LASER TECHNOLOGY R&D FOR ACCELERATORS
December 2,2015

DOE 26. LASER TECHNOLOGY R&D FOR ACCELERATORS

  • Release Date:11-02-2015
  • Open Date:11-30-2015
  • Due Date:12-21-2015
  • Close Date:02-09-2016

This topic area is aimed at developing technologies for ultrafast lasers capable of high average power (kilowatt-class) operating at the high electrical-to-optical efficiency (>20%) needed for advanced accelerator applications.

DOE 24. ADVANCED CONCEPTS AND TECHNOLOGY FOR PARTICLE ACCELERATORS
December 2,2015

DOE 24. ADVANCED CONCEPTS AND TECHNOLOGY FOR PARTICLE ACCELERATORS

  • Release Date:11-02-2015
  • Open Date:11-30-2015
  • Due Date:12-21-2015
  • Close Date:02-09-2016

DOE 20d. Structural Materials and Coatings
December 2,2015

DOE 20d. Structural Materials and Coatings

  • Release Date:11-02-2015
  • Open Date:11-30-2015
  • Due Date:12-21-2015
  • Close Date:02-09-2016

An attractive fusion energy source will require the development of superconducting magnets and materials as well as technologies that can withstand the high levels of surface heat flux and neutron wall loads expected for the in-vessel components of future fusion energy systems. These technologies and materials will need to be substantially advanced relative to today's capabilities in order to achieve safe, reliable, economic, and environmentally-benign operation of fusion energy systems.