The primary objective of CU Aerospace's Phase II work will be to experimentally characterize the ElectriCOIL flow using advanced diagnostics and to demonstrate lasing of this electrically assisted chemical iodine laser. CU Aerospace (CUA) and theUniversity of Illinois at Urbana-Champaign (UIUC)… More

The primary objective of CU Aerospace's Phase II work will be to experimentally characterize the ElectriCOIL flow using advanced diagnostics and to demonstrate lasing of this electrically assisted chemical iodine laser. CU Aerospace (CUA) and theUniversity of Illinois at Urbana-Champaign (UIUC)… More

"The primary objective of CU AerospaceOs Phase I work will be to develop all-gas-phase closed-cycle electrically assisted COIL (ElectriCOIL) technology. CU Aerospace (CUA) and the University of Illinois at Urbana-Champaign (UIUC) believe that thischallenge can be surmounted with changes to gain… More

"Composite cryogenic storage tanks will enable ABL and SBL program objectives by reducing structural weight, increasing reactant mass, reducing systems costs, and reducing risk to the programs. A recent development in composite materials design formultifunctional damage mitigation is proposed as a… More

The primary objective of CU AerospaceOs Phase II engineering work will be to develop all-gas-phase closed-cycle electrically assisted chemical laser COIL (ElectriCOIL) technology. CU Aerospace (CUA) and the University of Illinois at Urbana-Champaign(UIUC) believe that this challenge can be… More

UltraSail is a complete sail system for the launch, deployment, stabilization and control of very large (km^2 size) solar sails enabling reduced mission times for interplanetary and deep space spacecraft. UltraSail is an innovative, non-traditional approach to propulsion technology achieved by… More

UltraSail, proposed by a team of CU Aerospace, the University of Illinois at Urbana-Champaign, SRS Technologies, and VACCO Industries, is a next-generation high-risk, high-payoff sail system for the launch, deployment, stabilization and control of very large (km^2 class) solar sails enabling high… More

The primary objective of CU Aerospace's Phase I work will be to investigate innovative iodine injection concepts for the chemical oxygen-iodine laser (COIL) that improve mixing at higher total pressures. The designs will be made to significantly improve the pressure recovery of COIL systems while… More

Self-healing composites and adhesives would alleviate longstanding problems in aerospace structures associated with multiple types of damage mechanisms such as mechanical/thermal fatigue, microcracking, and debonding. A composite cryogenic tank based on self-healing technology would prevent leakage… More

The primary objective of CU Aerospace's Phase I work will be to investigate and verify advanced non-invasive diagnostic concepts that innovate and improve the capability to measure important discharge produced states of atomic oxygen and ozone under operational Electric Oxygen-Iodine Laser (EOIL)… More

The primary objective of CUA's Phase II work will be to investigate innovative iodine injection concepts for the COIL that improve mixing at higher total pressures, as well as perform a laser demonstration. During Phase I, CUA designed, fabricated, and tested a flexible experimental system that… More

CU Aerospace and its University of Illinois teammate propose the design, sub-component fabrication and preliminary test of an UltraSail "Cubesat" 20 m2 solar sail spacecraft leading to a flight test in low Earth orbit. The complete flight test program consists of: preliminary design and… More

The primary objective of CU Aerospace's Phase I work will be to investigate a relatively new, highly innovative high pressure singlet-delta oxygen generator (SOG) concept for the chemical oxygen-iodine laser (COIL). Estimates are that this SOG concept will significantly improve the pressure… More

Self-healing composites and adhesives would alleviate longstanding problems in aerospace structures associated with multiple types of damage mechanisms such as mechanical/thermal fatigue, microcracking, and debonding. For example, a self-healing composite cryogenic tank would prevent leakage by… More

A team of CU Aerospace, the University of Illinois, and ManTech SRS Technologies proposes Phase II development of a 3 kg CubeSat spacecraft for initial flight test of a 20 m2 UltraSail, a next-generation high-risk, high-payoff solar sail system for the launch, deployment, stabilization and control… More

The primary objective of CU Aerospace's Phase I work will be to assess the feasibility of producing very narrow linewidth (< 1 MHz), single-mode, diode lasers for pumping alkali atoms. This effort will involve novel laser-amplifier diode architecture to enable such high performance devices. These… More

Multifunctional composite materials would alleviate longstanding problems in composite structures associated with multiple types of damage mechanisms such as mechanical/thermal fatigue, microcracking, and debonding. Self-healing polymers consist of a healing agent that is stored in microcapsules… More

Multifunctional materials would alleviate longstanding problems in composite structures associated with multiple types of damage mechanisms such as mechanical/thermal fatigue, microcracking, and impact. CU Aerospace (CUA) proposes an innovative hybrid self-healing composite consisting of a two-part… More

Better performing ablative thermal protection systems than currently available are needed to satisfy requirements of the most severe crew exploration vehicles, such as the Mars Sample Return with 12-15 km/s Earth entry. The primary objective of CU Aerospace's Phase I work will be to fabricate and… More

This Small Business Innovation Research (SBIR) Phase I project will develop a MATLAB based toolbox that can be used in educational laboratory environments for the training of the next generation of engineers with modern adaptive control theory, and will be performed by CU Aerospace (CUA) and team… More