Abstract :
Chronos Technology (Div. of FMI, Inc.) is presently involved in an SBIR phase II effort to produce and deliver a comprehensive, practical and commercially available solution for a novel extreme temperature (both cold & hot), and radiation tolerant, compact radio frequency clock source (RTXO). Offering compelling features such as surface mounting, scalable configuration and miniature footprint, this innovative technology directly targets a wide range of requirements. RTXO satisfies the critical requirements of NASA space programs such as Mars science laboratory (MSL), MER and future missions to Moon at both system and subsystem level with operating temperatures in the -180degC to +120degC. It also addresses the requirements of the extreme high temperature RTXO that could be utilized for the missions to Venus and other extreme environment space systems with highest operating temperature range to 460degC. Furthermore, the RTXO enables and improves wide range of scientific, military & commercial space systems with its miniaturized footprint and rugged construction. As for non space systems, it delivers a higher level of performance at smaller size to critical down-hole, nuclear process monitoring and very demanding geothermal applications. We do expect that our solution will immediately and profoundly impact plans for the present and future space missions and other extreme environment applications. RTXO brings new paradigm to resolve space systems design risk in terms of higher reliability and performance at significantly reduced size, weight and manufacturing time which all point to lower cost. This effort will yield innovations ranging from unique extreme temperature and high-Q resonator material, a unique matching integrated resonator driver amplifier/buffer based on silicon carbide (SiC) and the smallest surface mount high reliability, space level, radiation tolerant clock source
Keywords :
Mars; Moon; clocks; crystal oscillators; high-temperature electronics; process monitoring; silicon compounds; surface mount technology; wide band gap semiconductors; -180 to 120 C; 460 C; Chronos Technology; Mars Science Laboratory; Moon; SiC; crystal oscillator; high-Q resonator material; miniaturized footprint; nuclear process monitoring; radiation tolerance; radio frequency clock source; space systems design; surface mounting; temperature tolerance; Clocks; Mars; NASA; Oscillators; Radio frequency; Silicon carbide; Space missions; Space technology; Surface-mount technology; Temperature distribution;