Notable Technical Inquiry

Notable Technical Inquiry
Dr. Englestad, recently appointed as the integrated threat analysis and simulation environment (ITASE) systems lead,oversees the development and maintenance of 200+ intelligence community (IC) validated threat models. ITASE is the IC-wide modeling and simulation architecture designed to provide threat-representative, systems-of systems, kill-chain analysis for the Department of Defense. He is also a computational fluid dynamics subject mater expert for DIA’s MSIC where Tyler Englestand, ITASE Systems Lead, Defense Intelligence Agency's (DIA's) Missile and Space Intelligence Center (MSIC) he is leading a project to reduce aerodynamics characterizations from weeks to days using general-purpose graphics processing unit technologies.
The purpose of this special notice is to obtain information via white papers from both MCDC members and other interested industry/academia partners in […]
EXTERNAL NON-GOVERNMENT SOURCE
MARCH 23, 2020
Ten years after producing the first sample of the now widely studied family of nanomaterials, called MXenes, Drexel University researchers have discovered a...
EXTERNAL NON-GOVERNMENT SOURCE
AUGUST 13, 2019
Hold on to your tinfoil hats because there’s certainly a conspiracy theory a-brewin’ here. The Pentagon has confirmed it’s testing lasers that can talk. Huh? Weapons researchers at the U.S. Department of Defense have been working on less deadly means of warfare, including this laser weapon that can send brief messages — in the form
EXTERNAL NON-GOVERNMENT SOURCE
JULY 30, 2019
The Army has approved an upgraded software and hardware system that will be integrated into its next-generation squad weapon. “T-Worx, a technology innovation company based in Sterling, Virginia, is a component supplier and provides the I-Rail to all of the next-generation squad weapon competitors,” said Ben Feldman, the company’s chief engineer and I-Rail developer. “The
EXTERNAL NON-GOVERNMENT SOURCE
DECEMBER 04, 2017
As a promising integration platform, silicon photonics need on-chip laser sources that dramatically improve capability, while trimming size and power dissipation in a cost-effective way for volume manufacturability. Currently, direct heteroepitaxial growth of III–V laser structures on Si using quantum dots as the active region is a vibrant field of research, with the potential to