Simultaneous Range-Doppler Radar (SRD) raises the standard for information extracted from radar returns.  With SRD Radar, the end user receives big-system high-performance capability in smaller, more mobile platforms, enhancing air superiority and air-space dominance, while leaving no sanctuary for our adversaries

Frequently Asked Questions

1. Will SRD technology allow radars to operate with reduced transmit power? If so, how?
2. Will SRD technology allow radars to see smaller targets at longer ranges? If so, how?
3. Will SRD technology allow radars to improve their performance against targets embedded in surface and volumetric (weather) clutter? If so, how?
4. Will SRD technology allow radars to reduce their false alarm rates? If so, how?
5. Will SRD technology improve radars ability to counter RF interference and jamming? If so, how?
6. Will SRD technology improve radars ability to estimate target parameters such as azimuth, elevation, velocity, range, etc.? If so, how?
7. How will SRD technology reduce the cost of our radars systems?
8. Can SRD technology be retrofitted into our current radars or does it apply to new designs only?
9. If SRD technology can be retrofitted into existing radars, what changes must be made to existing architectures, hardware, software, waveforms, signal processing, detection processing, data processing, target tracking, etc.?
10. Is SRD technology applicable to all radar modes or does it apply only to a special mode?
11. Does SRD technology apply to reflector as well as phased array radars?
12. How much further development is required before SRD technology can be inserted into existing radars?
13. How can SRD technology operate with longer pulses?  How does SRD technology overcome Doppler Fragility?
14. How can SRD technology achieve, with a single pulse, the detection performance of Coherent Pulse Integration?
15. How does SRD technology achieve a computational advantage over current state of the art?