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Awards for “BEYOND PHOTONICS, LLC”
25 awards on this page · sorted by amount · page 1
| Award ID | Recipient | Awarding agency | Amount | Start | End | NAICS | Description |
|---|---|---|---|---|---|---|---|
| 80NSSC23CA181 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $2.42M | 2023-07-12 | 2029-01-01 | 541715 | P3 - COMPACT POWER AMPLIFIER FOR HYBRID FIBER/BULK WIND LIDAR TRANSMITTERS |
| NNX17CS58C | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $1.8M | 2017-06-14 | 2022-02-11 | 541712 | IGF::OT::IGF THE ADVANCED COHERENT DETECTION WIND SPACE PATHFINDER (WIND SP) LIDAR DIRECTLY ADVANCES THE OVERALL TECHNOLOGY MATURATION AND READINESS OF COHERENT DETECTION WIND MEASUREMENTS TOWARDS THE 3D GLOBAL WIND SPACE MISSION. IT REPRESENTS A MAJOR NEXT STEP THAT WILL RESULT IN A NEW INSTRUMENT THAT MATCHES FORM, FIT, AND FUNCTION OF THE LIDAR SUBSYSTEM WITH A SPACEREADY INSTRUMENT WHILE RETAINING APPROPRIATE ALIGNMENT ACCESSIBILITY. THE PRIMARY OBJECTIVE OF THE WIND SPACE PATHFINDER ACTIVITY IS TO DESIGN, DEVELOP, AND DEMONSTRATE A NEXT GENERATION COHERENT DETECTION WIND LIDAR THAT REPRESENTS A MAJOR STEP TOWARDS THE ULTIMATE WIND SPACE MISSION. |
| HQ086021C7101 | BEYOND PHOTONICS, LLC | Department of Defense | $1.5M | 2021-03-04 | 2023-11-02 | 541715 | SBIR/STTR PHASE II R&D-COMPACT EFFICIENT LADAR FOR TARGET DETECTION AND RANGING |
| 80NSSC21C0569 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $1.12M | 2021-07-28 | 2025-03-31 | 541715 | COMPACT POWER AMPLIFIER FOR HYBRID FIBER/BULK WIND LIDAR TRANSMITTERS |
| 80NSSC18C0160 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $896.72K | 2018-06-12 | 2022-06-28 | 541715 | IN THIS PHASE II EFFORT WE PROPOSE TO ADVANCE THE DEVELOPMENT OF AUTONOMOUS ALIGNMENT TECHNOLOGY ALLOWING IMPROVED PERFORMANCE AND RELIABILITY FROM COHERENT LIDAR SYSTEMS AND DEMONSTRATE THE TECHNOLOGIES IN A WORKING COHERENT LIDAR SYSTEM. EYE-SAFE COHERENT LIDAR TECHNOLOGY HOLDS GREAT PROMISE OF MEETING NASA'S DEMANDING REMOTE 3D SPACE WINDS GOAL NEAR TERM. HIGHLY AUTONOMOUS, LONG-RANGE COHERENT LIDAR SYSTEMS MAY HOWEVER SUFFER SIGNIFICANT SIGNAL LOSS DUE TO ENVIRONMENT-INDUCED COMPONENT MISALIGNMENT, AS WELL AS VARYING RECEIVER LAG-ANGLE ALIGNMENT ERRORS IN SPACE-BASED PLATFORM APPLICATIONS. ALTHOUGH SUCH SYSTEMS CAN BE ENGINEERED WITH THE REQUIRED ALIGNMENT STABILITY, THE OVERALL SIZE, MASS, AND COST TO PRODUCE COHERENT LIDAR SYSTEMS WILL BENEFIT FROM INCORPORATING TECHNOLOGY INTO THE DESIGN THAT ALLOWS ALIGNMENT TO BE OPTIMIZED AUTOMATICALLY WHILE THE SYSTEM IS IN THE FIELD. AUTONOMOUS SPACE- AND AIR-BORNE LIDAR SYSTEMS WILL ESPECIALLY BENEFIT, WHERE MAINTAINING PEAK PERFORMANCE IS CRITICAL WITHOUT REGULAR HUMAN INTERVENTION. AUTO-ALIGNMENT TECHNOLOGIES WILL RESULT IN LOWER-COST LIDAR SENSORS WITH GREATER AUTONOMY AND LESS-EXOTIC OPTO-MECHANICS, SPURRING STRONG COMMERCIAL POTENTIAL DUE TO THE RAPID INTRODUCTION OF LIDAR SYSTEMS INTO THE COMMERCIAL MARKETPLACE FOR VARIOUS APPLICATIONS. THE TECHNOLOGY AIMED AT MAINTAINING LASER AND LIDAR ALIGNMENT ALSO HAS POTENTIAL TO CORRECT FOR RECEIVER LAG ANGLE IN FAST-SCANNING LONG-RANGE LIDAR SYSTEMS, WHICH WILL FACILITATE FASTER SCAN RATES, LARGER APERTURES, AND GREATER AREA COVERAGE RATE CAPABILITY. BEYOND PHOTONICS HAS A STRONG INTEREST IN SOLVING THESE TECHNOLOGICAL PROBLEMS FOR RELEVANT GROUND-BASED, AIRBORNE, AND SPACE-BASED UNATTENDED LIDAR SYSTEMS. THIS PHASE II EFFORT WILL FURTHER MATURE AUTO-ALIGNMENT DESIGNS EXHIBITING A HIGH LEVEL OF SYNERGY BETWEEN NASA'S AND OTHER COMMERCIAL VENDORS REQUIREMENTS FOR LASER AUTO-ALIGNMENT, TRANSMIT/RECEIVE TRANSCEIVER AUTO-ALIGNMENT, AND RECEIVER LAG ANGLE COMPENSATION. |
| 80NSSC24CA105 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $849.99K | 2024-07-09 | 2027-01-08 | 541715 | SBIR PHASE II, LONG-RANGE COMPACT ECONOMICAL LIDAR FOR WIND PROFILING |
| NNX17CL24C | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $749.9K | 2017-03-30 | 2020-10-01 | 541712 | IGF::OT::IGF IN THIS PHASE II EFFORT WE PROPOSE TO WORK WITH NASA TO EXTEND THE PHASE I ACHIEVEMENTS, WHICH FOCUSED ON DESIGN AND DEVELOPMENT OF VERY COMPACT MASTER AND LONG-PULSE SLAVE OSCILLATOR LASERS OPERATING NEAR 2.05 UM WAVELENGTH. BEYOND PHOTONICS LLC'S "SWIFT" LASER WAS MATURED AND LARGELY PRODUCTIZED, WITH AN INITIAL UNIT DELIVERED IN PHASE I. IN PARALLEL, CONCEPTUAL AND PRELIMINARY DESIGN AND RISK-REDUCTION OF A VERY COMPACT SHORT-CAVITY TM,HO:YLF Q-SWITCHED LASER WAS ACHIEVED, WHICH WILL BE EXTENDED SIGNIFICANTLY IN PHASE II AND RESULT IN A ROBUST INJECTION-SEEDED, ACTIVELY PULSE-STRETCHED PROTOTYPE. THE COMPACT TRANSMITTER WILL INCLUDE A "NANO-SWIFT" THAT WILL HAVE SIZE AND WEIGHT COMPARABLE TO A BUTTERFLYPACKAGED DFB DIODE LASER BUT WITH FAR BETTER FREQUENCY STABILITY AND HIGHER POWER. IN PHASE II WE WILL DEMONSTRATE OUTPUT CHARACTERISTICS OF 32 MJ, 100 HZ PRF, AND 300-500 NS PULSE DURATIONS FROM THIS COMPACT ROBUST INJECTION-SEEDED TRANSMITTER. THIS MODERATE-PRF MODERATE-ENERGY TRANSMITTER WILL BE IMMEDIATELY SUITABLE FOR 3D WINDS FROM GROUND AND AIRBORNE PLATFORMS AND WITH CONTINUED TRL ADVANCEMENT EVENTUALLY SPACE PLATFORMS. THE TRANSMITTER WILL BE CAPABLE OF EFFICIENT OPERATION AT>4 W AVERAGE POWER AT LOWER PULSE ENERGIES AND HIGHER PRFS (E.G.. 1 -4 KHZ) WHICH IS SUITABLE FOR IPDA SPECTROSCOPY AND HARD TARGET MEASUREMENT LIDAR SYSTEMS OPERATING FROM SPACE (FOLLOWING AN APPROPRIATE ENGINEERING AND QUALIFICATION EFFORT) USING EITHER COHERENT OR DIRECT DETECTION WITH STATE-OF-THE-ART LOW-NOISE DIRECT DETECTORS. THE OVERARCHING OBJECTIVE OF THE PROPOSED EFFORT IS TO DEVELOP COMPACT, EFFICIENT, AND RELIABLE PULSED AND CW LASERS AND LIDAR TRANSMITTERS FOR FUTURE NASA MISSIONS. SPECIFICALLY, WE ADDRESS NEEDS DESCRIBED FOR 3D WINDS, ATMOSPHERIC CO2 AND H20 CONCENTRATION SENSING IN THE 2.05 UM REGION; BUT WE ALSO RECOGNIZE THAT SUCH INNOVATIONS CAN BE READILY APPLIED TO TRANSMITTER LASER OPERATION AT OTHER IR AND SWIR WAVELENGTHS AND ASSOCIATED INSTRUMENTS. |
| 80NSSC21C0040 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $711.65K | 2021-01-26 | 2025-01-25 | 541715 | AUTONOMOUS ALIGNMENT ADVANCEMENTS FOR EYE-SAFE COHERENT LIDAR |
| 80NSSC18C0198 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $316.38K | 2018-09-27 | 2020-08-31 | 541715 | IN THIS PROPOSAL WE DESCRIBE ENHANCEMENTS TO THE SBIR PHASE 2 PROGRAM FOR A COMPACT 2-MICRON TRANSMITTER FOR REMOTE SENSING APPLICATIONS THAT PROGRESS THIS RESEARCH TO A PACKAGED PRODUCT AS A HIGH PERFORMANCE 2-MICRON LIDAR TRANSCEIVER. THIS EXTENSION PROGRAM WILL SIGNIFICANTLY PROGRESS THE STUDY OF THE BASELINE PROGRAM TO THE PRODUCTION OF DEVICES COMPATIBLE WITH THE NASA WIND-SP DEMONSTRATION ENVIRONMENT AND ALSO FOR COMMERCIAL PRODUCT APPLICATIONS. THE DEVELOPMENT OF THE COHERENT LIDAR SYSTEM AND KEY COMPONENTS FOR LONG RANGE, EVENTUALLY SPACE-BASED, WIND MEASUREMENTS IS PROGRESSING VERY WELL UNDER THE EXISTING SBIR FUNDING. THIS ADDED PHASE 2E EFFORT WILL ALLOW BEYOND PHOTONICS TO BUILD AND TEST CRITICAL LIDAR COMPONENTS AND BUILD, ASSEMBLE, AND TEST THE TRANSCEIVER BENCH AND ENCLOSURE MODULES. |
| 80NSSC23PB370 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $149.99K | 2023-08-03 | 2024-02-02 | 541715 | SBIR PHASE I: LONG-RANGE COMPACT ECONOMICAL LIDAR FOR WIND PROFILING |
| HQ086020C7047 | BEYOND PHOTONICS, LLC | Department of Defense | $149.86K | 2019-11-22 | 2021-04-29 | 541715 | SBIR/STTR PHASE I RESEARCH&DEVELOPMENT COMPACT EFFICIENT LADAR FOR TARGET DETECTION AND RANGING |
| 80NSSC25PA304 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $127.91K | 2024-12-11 | 2026-01-30 | 541990 | FIBER-COUPLED PZT-TUNABLE SWIFT LASER/HO:YLF FIBER-COUPLED PZT-TUNABLE SWIFT LASER, 2052.92NM, >50MW CW SINGLE FREQUENCY |
| 80NSSC20C0420 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.98K | 2020-08-31 | 2021-03-01 | 541715 | HIGH EFFICIENCY WIDE BANDWIDTH BALANCED DETECTOR/PREAMPLIFIER AT 2 MICRON WAVELENGTH |
| NNX17CL42P | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.95K | 2017-06-09 | 2017-12-08 | 541712 | IGF::OT::IGF EYE-SAFE COHERENT LIDAR TECHNOLOGY HOLDS INCREASING PROMISE OF MEETING NASA'S DEMANDING REMOTE 3D SPACE WINDS GOAL NEAR TERM. HIGHLY AUTONOMOUS, LONG-RANGE COHERENT LIDAR SYSTEMS MAY SUFFER SIGNIFICANT SNR LOSS DUE TO ENVIRONMENT-INDUCED COMPONENT MISALIGNMENT. ALTHOUGH SYSTEMS CAN BE ENGINEERED WITH THE REQUIRED ALIGNMENT STABILITY, THE OVERALL SIZE, MASS, AND COST TO PRODUCE COHERENT LIDAR SYSTEMS WILL BENEFIT FROM INCORPORATING TECHNOLOGY INTO THE DESIGN THAT ALLOWS ALIGNMENT TO BE OPTIMIZED AUTOMATICALLY WHILE THE SYSTEM IS IN THE FIELD. THIS WILL ESPECIALLY BENEFIT AUTONOMOUS AIRBORNE AND SPACE BASED LIDAR SYSTEMS WHERE MAINTAINING PEAK PERFORMANCE IS CRITICAL WITHOUT REGULAR HUMAN INTERVENTION. AUTO-ALIGNMENT TECHNOLOGIES WILL RESULT IN LOWER-COST SENSORS WITH GREATER AUTONOMY AND LESS-EXOTIC MECHANICAL ENGINEERING, RESULTING IN HIGH COMMERCIAL POTENTIAL DUE TO THE RAPID INTRODUCTION OF LIDAR SYSTEMS INTO THE COMMERCIAL MARKETPLACE FOR VARIOUS APPLICATIONS. THE TECHNOLOGY AIMED AT MAINTAINING LASER AND LIDAR ALIGNMENT ALSO HAS POTENTIAL TO CORRECT FOR RECEIVER LAG ANGLE IN SCANNING LIDAR SYSTEMS, WHICH WILL FACILITATE FASTER SCAN RATES, LARGER APERTURES, AND GREATER AREA COVERAGE RATE CAPABILITY. BEYOND PHOTONICS HAS A STRONG INTEREST IN SOLVING THESE TECHNOLOGICAL PROBLEMS FOR RELEVANT GROUND-BASED, AIRBORNE, AND SPACE-BASED UNATTENDED LIDAR SYSTEMS. THIS PHASE I EFFORT WILL INVESTIGATE AUTO-ALIGNMENT DESIGNS EXHIBITING A HIGH LEVEL OF SYNERGY BETWEEN NASA'S AND OTHER COMMERCIAL VENDOR'S REQUIREMENTS FOR LASER AUTO-ALIGNMENT, TRANSMIT/RECEIVE TRANSCEIVER AUTO-ALIGNMENT, AND LAG ANGLE COMPENSATION. |
| 80NSSC21C0128 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.95K | 2021-05-19 | 2021-11-19 | 541715 | COMPACT TRANSMITTER FOR METHANE AND WIND MEASUREMENTS |
| 80NSSC20C0422 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.95K | 2020-08-31 | 2021-03-01 | 541715 | COMPACT POWER AMPLIFIER FOR HYBRID FIBER/BULK WIND LIDAR TRANSMITTERS |
| N6833518C0491 | BEYOND PHOTONICS, LLC | Department of Defense | $124.95K | 2018-05-24 | 2018-11-23 | 541715 | SBIR PHASE I IGF::OT::IGF |
| NNX16CL71P | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.95K | 2016-06-10 | 2016-12-09 | 541712 | IGF::OT::IGF BEYOND PHOTONICS PROPOSES TO DEVELOP A HIGHLY COMPACT, EFFICIENT NEXT-GENERATION SINGLE-FREQUENCY PULSED TRANSMITTER LASER FOR CURRENT AND FUTURE NASA MISSIONS FOCUSED ON LASER REMOTE SENSING IN THE SHORT-WAVE INFRARED WAVELENGTH REGION NEAR TWO MICRONS. MORE RELIABLE AND COMPACT SOURCES OF THIS TYPE ARE REQUIRED FOR NASA AND COMMERCIAL/MILITARY APPLICATIONS SUCH AS TERRESTRIAL AND AIRBORNE DOPPLER WINDS, LONG-RANGE MEASUREMENT OF MOLECULAR CO2 AND H2O CONCENTRATIONS IN THE ATMOSPHERE, AND IDENTIFICATION AND TRACKING OF FAST MOVING HARD TARGETS (E.G. SPACE DEBRIS, ASTEROIDS, DOCKING). WE WILL EMPHASIZE THE USE OF SMALL BUT POWERFUL LASERS OPERATING NEAR 2 ?M AND CAPITALIZE OPTIMALLY ON SOLID-STATE LASER DESIGNS RECENTLY DEVELOPED AT BEYOND PHOTONICS AS WELL AS OUR TEAM?S EXTENSIVE PAST EXPERIENCE WITH THIS SPECIFIC LASER TECHNOLOGY. EFFICIENT, COMPACT HYBRID APPROACHES USING BULK SOLID-STATE PULSED TRANSMITTERS FOLLOWED BY DOPED-FIBER AMPLIFICATION WILL BE A FOCUS TO REACH FLEXIBLE PERFORMANCE ON THE ORDER OF 200 ?J/PULSE, 0.5-8 KHZ PRF, WHICH CAN SERVE AS AN EFFECTIVE TRANSMITTER FOR MANY APPLICATIONS AS-IS IN BOTH COHERENT OR DIRECT DETECTION LIDAR ARCHITECTURES, OR WHICH CAN BE INCREASED VIA FURTHER AMPLIFICATION AS NEEDED. OPERATIONALLY FLEXIBLE Q-SWITCHED AND INJECTION SEEDED OPERATION COMPATIBLE WITH SEVERAL DIFFERENT APPLICATIONS WITH DIFFERING REQUIREMENTS WILL BE EMPHASIZED. VERY COMPACT EFFICIENT MO LASER TECHNOLOGY WILL ALSO BE EXPLOITED AND A PROTOTYPE MO DELIVERED IN PHASE I. TECHNIQUES WILL BE EXPLORED TO INCREASE OUTPUT PULSE DURATION TO NARROW THE TRANSFORM-LIMITED PULSE SPECTRA WHILE MAINTAINING VERY COMPACT LASER CAVITY LENGTH. THESE INNOVATIONS WILL APPLY DIRECTLY TO CURRENT NASA MISSIONS AND INSTRUMENTS (DOPPLER LIDAR, IPDA, LAS) AND ACCELERATE COMMERCIAL DEVELOPMENT AND AVAILABILITY OF PRACTICAL GROUND-BASED AND AIRBORNE SYSTEMS (E.G. COMPACT AIRBORNE CO2 CONCENTRATION-MEASURING INSTRUMENTS) AT BP AND ELSEWHERE. |
| NNX16CL99P | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.93K | 2016-06-10 | 2016-12-10 | 541712 | IGF::OT::IGF EVEN THOUGH GASEOUS METHANE (CH4) IS A COMPARATIVELY SPARSE CONSTITUENT IN EARTH'S ATMOSPHERE, IT IS THE THIRD MOST IMPACTFUL GREENHOUSE GAS AFTER WATER VAPOR AND CARBON DIOXIDE, AND THE SECOND MOST IMPORTANT IN TERMS OF ANTHROPOGENIC DRIVERS. METHANE IS SOME 60 TIMES MORE EFFECTIVE THAN CO2 IN ABSORBING LONG-WAVELENGTH RADIATION, BECAUSE THE METHANE ABSORPTION LINES IN THAT PART OF THE SPECTRUM ARE LESS SATURATED AND HAVE LESS OVERLAP WITH WATER VAPOR LINES. NATURAL AND AGRICULTURAL SOURCES OF METHANE CONTINUE TO DOMINATE, BUT ARE DIFFICULT TO SEPARATE AND QUANTIFY. WORLD-WIDE, RICE CULTIVATION, BIOMASS BURNING, RUMINANT FARM ANIMALS, AND FOSSIL FUEL MINING AND USAGE HAVE LONG BEEN THE MOST POWERFUL DRIVERS, BUT WITH CLIMATE CHANGE THESE SOURCES COULD BE DWARFED IN THE FUTURE BY THE RELEASE OF ENORMOUS QUANTITIES OF METHANE FROM MELTING PERMAFROST AND/OR METHANE HYDRATES CURRENTLY BURIED DEEP IN OCEAN SEDIMENT. INNOVATIVE NEW REMOTE SENSING TECHNOLOGIES NEED TO ADDRESS THE ATMOSPHERIC METHANE CONCENTRATION MEASUREMENT PROBLEM FOR NASA AND OTHER APPLICATIONS. BEYOND PHOTONICS PROPOSES TO INVESTIGATE SPECIFIC VERY COMPACT PULSED LIDAR DESIGNS NEAR THE 1.645-MICRON WAVELENGTHS OF INTEREST BY NASA FOR ATMOSPHERIC METHANE (CH4) AND POTENTIALLY WATER VAPOR IN THE SAME NOMINAL WAVELENGTH REGION. SPECIFICALLY, METHANE CONCENTRATION FROM MODERATE-SIZED UNMANNED AERIAL VEHICLES OF NASA'S CHOICE WILL BE A FOCUS; THIS APPLICATION PUTS PARTICULAR EMPHASIS ON DECREASING SIZE, WEIGHT, AND PRIME POWER (SWAP) AND ELIMINATING ACTIVE LASER COMPONENT COOLING. PARTICULAR EMPHASIS WILL ALSO BE PLACED ON ENSURING THAT THE LIDAR DESIGNS ARE COMPATIBLE WITH SCALING TO SPACE QUALIFICATION IN FUTURE SUCH PROGRAMS. EMPHASIS WILL ALSO BE PLACED ON TECHNICAL APPROACHES WITH GOOD OPERATIONAL FLEXIBILITY IN TERMS OF PULSE ENERGY AND DURATION, FREQUENCY AGILITY, AND APPLICATION TO OTHER IR AND SWIR WAVELENGTHS. |
| NNX14CL62P | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.86K | 2014-06-20 | 2014-12-19 | 541712 | IGF::OT::IGF WE PROPOSE THE POTENTIAL TO DEVELOP SIGNIFICANT IMPROVEMENTS TO SIZE, WEIGHT, AND PRIME POWER REQUIREMENTS OF FRONT-END CW LASERS AND ASSOCIATED FREQUENCY STABILIZATION AND OFFSET-LOCKING PHOTONICS AND ELECTRONICS THAT ARE UTILIZED IN LASER-BASED REMOTE SENSING SYSTEMS FOR THE MEASUREMENT OF ATMOSPHERIC CO2 CONCENTRATIONS AND WIND VELOCITY. THE EMPHASIS IN THE PROPOSED PROGRAM IS TO DEVELOP STABLE FRONT-END SOURCES FOR 2-MICRON WAVELENGTH SYSTEMS, BUT IT IS ANTICIPATED THAT MUCH OF THE DESIGN WILL BE READILY APPLICABLE TO A BROAD ARRAY OF SHORT-WAVE IR WAVELENGTHS, E.G. 1.57 MICRON, BY THE USE OF ALTERNATIVE LASER GAIN MEDIA. ALTHOUGH THE PHASE I DESIGN AND PHASE II IMPLEMENTATION WILL BE AIMED AT AIRBORNE PLATFORMS, ONLY DESIGNS THAT HAVE A CLEAR AND PRACTICAL PATH TO FUTURE SPACE-BASED IMPLEMENTATION WILL BE CONSIDERED. THE BEYOND PHOTONICS TEAM IS UNIQUELY QUALIFIED TO EXPLORE THE STATE-OF-THE-ART IN RELEVANT LASERS AND FREQUENCY STABILIZATION TECHNIQUES AND DEVELOP IMPROVED FRONTEND SYSTEMS THAT HAVE A DEMONSTRABLE PATH TO ROBUST, COMPACT AIRBORNE AND SPACE-BASED APPLICATIONS. OUR TEAM'S DEEP EXPERIENCE WITH SUCH SYSTEMS LENDS A PERSPECTIVE THAT WILL YIELD SIGNIFICANT GAINS IN SYSTEM COMPACTNESS, EFFICIENCY, AND AUTONOMOUS RELIABILITY FOR A WIDE ARRAY OF APPLICATIONS RELEVANT TO NASA'S MISSIONS, AND IMPROVE THE VIABILITY FOR OTHER COMMERCIAL AND MILITARY APPLICATIONS IN EYE-SAFE REMOTE SENSING. |
| NNL15AF82P | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $124.79K | 2015-08-20 | 2016-12-31 | 541990 | IGF::OT::IGF OPTIMIZATION OF DAWN LIDAR SYSTEM EFFICIENCY |
| W911QX15P0231 | BEYOND PHOTONICS, LLC | Department of Defense | $95K | 2015-06-16 | 2016-03-22 | 541990 | IGF::OT::IGF LIDAR PERFORMANCE ANALYSIS REPORTS |
| NNL14AC56P | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $86.5K | 2014-05-09 | 2016-07-31 | 541990 | "IGF::OT::IGF" WINDTRACER COMPONENT ASSESSMENT AND SYSTEM INTEGRATION |
| 80NSSC21P2358 | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $50.86K | 2021-08-10 | 2022-01-26 | 541715 | THIS PURCHASE ORDER IS FOR WIND-SP INVAR OPTICAL BENCH AS PER ATTACHED QUOTE 7/06/2021...DELIVERY DATE: .OT1 PAYMENT-24 WEEKS AFTER ATP.OT2 PM1:-6 WEEKS AFTER ATP.OT2 PM2:-16 WEEKS AFTER ATP.OT2 PM3:-22 WEEKS AFTER ATP. |
| NNL17AA25P | BEYOND PHOTONICS, LLC | National Aeronautics and Space Administration | $40.64K | 2016-12-05 | 2017-09-30 | 541690 | IGF::OT::IGF TECHNICAL CONSULTING FOR THE DAWN'S LIDAR SYSTEM EFFICIENCY (LSE) |