Mustang's team includes nationally-recognized experts in designing and developing weapon systems, RF systems, antennas, phased-array antenna systems, advanced missile systems and seekers, radar and anti-radiation homing (ARH) modes of operation and imaging infrared (IIR) systems. While with Texas Instruments Defense Systems and Electronics Group, team members were key contributors to Paveway, Shrike, HARM, HTS, JSOW, JAVELIN, ERGM and many other fielded weapon systems.

Mustang team members have implemented numerous real-time algorithms on a wide array of industry-standard digital signal processors, microprocessors, digital hardware, field programmable gate arrays and proprietary architectures. We use the development tools for Analog Devices and Texas Instruments DSPs and comfortably write code in assembly, C, C++, Fortran and ADA languages.

Mustang team members have implemented numerous real-time algorithms on a wide array of industry-standard digital signal processors, microprocessors, digital hardware, field programmable gate arrays and proprietary architectures. We use the development tools for Analog Devices and Texas Instruments DSPs and comfortably write code in assembly, C, C++, Fortran and ADA languages.

Mustang engineers have developed numerous weapons systems from initial concept creation to hardware production. We couple a solid understanding of physics, weapons systems and key enabling technologies, such as radar, anti-radiation homing (ARH) and image processing, with an agile, innovative company culture, positioning us to move rapidly from problem to fully-functioning solution.

The Mustang team is adept at designing and fabricating test equipment, prototype assemblies and production assemblies. We have developed airframes to house Mustang's radars for collecting data in free fall and assemblies for mounting the radars on various aircraft including F-16s. All of our assemblies undergo thermal, stress and shock analyses, including finite-element analysis and traditional methods.

From graphical user interfaces to control code to real-time algorithm implementation, Mustang's software engineers have extensive experience developing software for defense and commercial applications. We are comfortable writing code in assembly, C, C++, Fortran and ADA languages.

Mustang engineers have developed numerous weapons systems from initial concept creation to hardware production. We couple a solid understanding of physics, weapons systems and key enabling technologies, such as radar and image processing, with an agile, innovative company culture, positioning us to move rapidly from problem to fully-functioning solution.

Mustang team members have extensive experience in body-fixed guidance, nonlinear guidance, autopilot design and error-tolerant radar guidance algorithms. A team member developed the first all-digital guidance and control implementation for a tactical missile (HARM 1974), and Mustang team members have been key contributors to the guidance systems for HARM, Paveway, JSOW, JAVELIN, ERGM, XM982, Seek-Spinner and Tacit Rainbow and to the GBU-15 All Weather Upgrade, which had its first successful flight less than 45 days after program launch.

Mustang recognizes both the value of validated, high-fidelity simulations and the utility of fast-running, lower-fidelity simulations. Beginning with thorough, first-principles analysis and then gradually validating and increasing the fidelity of simulations during the product development cycle, we strive to find the right fidelity balance for each phase of every project. We use data collected in the field to validate and verify our simulations, enabling us to reliably analyze scenarios too costly to verify through actual tests.

The Mustang team is adept at designing and fabricating test equipment, prototype assemblies and production assemblies. We have developed airframes to house Mustang's radars for collecting data in free fall and assemblies for mounting the radars on various aircraft including F-16s. All of our assemblies undergo thermal, stress and shock analyses, including finite-element analysis and traditional methods.

Mustang team members have extensive experience testing complex systems for government customers. While this includes testing on government ranges, we find it cost-effective to thoroughly verify system performance in low-cost test environments before moving into these expensive environments. Mustang's techniques for exploiting skydiving equipment, facilities and personnel enable us to perform safe, highly-effective, ultra-low-cost captive flight and drop tests. We use these techniques to verify performance locally between testing in the laboratory and field testing at government sites.

Mustang's team includes nationally-recognized experts in designing and developing weapon systems, RF systems, antennas, phased-array antenna systems, advanced missile systems and seekers, radar and anti-radiation homing (ARH) modes of operation and imaging infrared (IIR) systems. While with Texas Instruments Defense Systems and Electronics Group, team members were key contributors to Paveway, Shrike, HARM, HTS, JSOW, JAVELIN, ERGM and many other fielded weapon systems.

Mustang team members have developed algorithms for an extensive array of military and commercial applications, which are currently operating in millions of devices worldwide. When developing algorithms for space-time adaptive processing, fixed-body guidance, bullet and projectile detection, tracking and shooter localization, direction finding (DF), target detection, target classification, target recognition, terrain profiling, sensor fusion, foliage penetration, automatic waveform selection, pulse compression, Doppler processing, range sidelobe suppression, infrared image processing, feature extraction, terminal guidance, or other applications, Mustang engineers rely on solid physical modeling, simulation and analysis to develop efficient, high-performance algorithms.

Mustang's team includes nationally-recognized experts in designing and developing weapon systems, RF systems, antennas, phased-array antenna systems, advanced missile systems and seekers, radar and anti-radiation homing (ARH) modes of operation and imaging infrared (IIR) systems. While with Texas Instruments Defense Systems and Electronics Group, team members were key contributors to Paveway, Shrike, HARM, HTS, JSOW, JAVELIN, ERGM and many other fielded weapon systems.

From high performance RF to high-speed digital, Mustang team members readily employ the latest tools and techniques in designing and testing efficient hardware for state-of-the-art weapons systems. The Mustang team is accustomed to working the full spectrum of the system; the antenna, the LNA, down conversion, local oscillators, IF strips, D/A conversion, FPGA, and processor functions.

Mustang team members have developed algorithms for an extensive array of military and commercial applications, which are currently operating in millions of devices worldwide. When developing algorithms for space-time adaptive processing, fixed-body guidance, bullet and projectile detection, tracking and shooter localization, direction finding (DF), target detection, target classification, target recognition, terrain profiling, sensor fusion, foliage penetration, automatic waveform selection, pulse compression, Doppler processing, range sidelobe suppression, infrared image processing, feature extraction, terminal guidance, or other applications, Mustang engineers rely on solid physical modeling, simulation and analysis to develop efficient, high-performance algorithms.

Mustang recognizes both the value of validated, high-fidelity simulations and the utility of fast-running, lower-fidelity simulations. Beginning with thorough, first-principles analysis and then gradually validating and increasing the fidelity of simulations during the product development cycle, we strive to find the right fidelity balance for each phase of every project. We use data collected in the field to validate and verify our simulations, enabling us to reliably analyze scenarios too costly to verify through actual tests.