DARPA Grant: Remoted Analog-to-Digital Converters with De-serialization and Reconstruction (RADER)

Original Synopsis Below.DARPA is soliciting innovative research proposals for developing power-efficient and remotable high-speed analog to digital converters (ADCs) with high resolution. The proposed program (Remoted Analog-to-Digital Converters with De-serialization and Reconstruction or RADER) research should investigate innovative approaches that enable revolutionary advances in analog-to-digital conversion. ADC systems enabled by RADER technology will be capable of operating in continuous time over a 10 GHz input instantaneous bandwidth (IBW) with a resolution of 10 effective number of bits (ENOB). Ultimately, it is desirable to be able to place the 10 GHz IBW so that input signals with frequency content of up to 18 GHz are captured. However, RADER technology demonstrations will focus on 10 GHz IBW at baseband (all Phases) in addition to 6 GHz IBW centered at 15 GHz (Phase III). Of particular interest is achieving these impressive goals within a dense input signal environment while simultaneously limiting the amount of dc power consumed to less than 50 Watts. Furthermore, in most applications, it is advantageous to sense analog waveforms at a point remoted from the components or subsystems that require significant portions of the power budget. The realization of such a continuous time analog-to-digital (A/D) system would create a unique new capability beyond the range of existing ADCs. Specifically excluded is research that primarily results in evolutionary improvements to the existing state of practice. All administrative correspondence and questions on this solicitation, including requests for information on how to submit a full proposal to this BAA, should be directed to DARPA-BAA-09-51@darpa.mil.See full BAA document attached.

Original Synopsis Below.

DARPA is soliciting innovative research proposals for developing power-efficient and remotable high-speed analog to digital converters (ADCs) with high resolution. The proposed program (Remoted Analog-to-Digital Converters with De-serialization and Reconstruction or RADER) research should investigate innovative approaches that enable revolutionary advances in analog-to-digital conversion. ADC systems enabled by RADER technology will be capable of operating in continuous time over a 10 GHz input instantaneous bandwidth (IBW) with a resolution of 10 effective number of bits (ENOB). Ultimately, it is desirable to be able to place the 10 GHz IBW so that input signals with frequency content of up to 18 GHz are captured. However, RADER technology demonstrations will focus on 10 GHz IBW at baseband (all Phases) in addition to 6 GHz IBW centered at 15 GHz (Phase III). Of particular interest is achieving these impressive goals within a dense input signal environment while simultaneously limiting the amount of dc power consumed to less than 50 Watts. Furthermore, in most applications, it is advantageous to sense analog waveforms at a point remoted from the components or subsystems that require significant portions of the power budget. The realization of such a continuous time analog-to-digital (A/D) system would create a unique new capability beyond the range of existing ADCs. Specifically excluded is research that primarily results in evolutionary improvements to the existing state of practice. All administrative correspondence and questions on this solicitation, including requests for information on how to submit a full proposal to this BAA, should be directed to DARPA-BAA-09-51@darpa.mil.See full BAA document attached.

Original Synopsis Below.

DARPA is soliciting innovative research proposals for developing power-efficient and remotable high-speed analog to digital converters (ADCs) with high resolution. The proposed program (Remoted Analog-to-Digital Converters with De-serialization and Reconstruction or RADER) research should investigate innovative approaches that enable revolutionary advances in analog-to-digital conversion. ADC systems enabled by RADER technology will be capable of operating in continuous time over a 10 GHz input instantaneous bandwidth (IBW) with a resolution of 10 effective number of bits (ENOB). Ultimately, it is desirable to be able to place the 10 GHz IBW so that input signals with frequency content of up to 18 GHz are captured. However, RADER technology demonstrations will focus on 10 GHz IBW at baseband (all Phases) in addition to 6 GHz IBW centered at 15 GHz (Phase III). Of particular interest is achieving these impressive goals within a dense input signal environment while simultaneously limiting the amount of dc power consumed to less than 50 Watts. Furthermore, in most applications, it is advantageous to sense analog waveforms at a point remoted from the components or subsystems that require significant portions of the power budget. The realization of such a continuous time analog-to-digital (A/D) system would create a unique new capability beyond the range of existing ADCs. Specifically excluded is research that primarily results in evolutionary improvements to the existing state of practice. All administrative correspondence and questions on this solicitation, including requests for information on how to submit a full proposal to this BAA, should be directed to DARPA-BAA-09-51@darpa.mil.See full BAA document attached.

Original Synopsis Below.

DARPA is soliciting innovative research proposals for developing power-efficient and remotable high-speed analog to digital converters (ADCs) with high resolution. The proposed program (Remoted Analog-to-Digital Converters with De-serialization and Reconstruction or RADER) research should investigate innovative approaches that enable revolutionary advances in analog-to-digital conversion. ADC systems enabled by RADER technology will be capable of operating in continuous time over a 10 GHz input instantaneous bandwidth (IBW) with a resolution of 10 effective number of bits (ENOB). Ultimately, it is desirable to be able to place the 10 GHz IBW so that input signals with frequency content of up to 18 GHz are captured. However, RADER technology demonstrations will focus on 10 GHz IBW at baseband (all Phases) in addition to 6 GHz IBW centered at 15 GHz (Phase III). Of particular interest is achieving these impressive goals within a dense input signal environment while simultaneously limiting the amount of dc power consumed to less than 50 Watts. Furthermore, in most applications, it is advantageous to sense analog waveforms at a point remoted from the components or subsystems that require significant portions of the power budget. The realization of such a continuous time analog-to-digital (A/D) system would create a unique new capability beyond the range of existing ADCs. Specifically excluded is research that primarily results in evolutionary improvements to the existing state of practice. All administrative correspondence and questions on this solicitation, including requests for information on how to submit a full proposal to this BAA, should be directed to DARPA-BAA-09-51@darpa.mil.See full BAA document attached.

All administrative correspondence and questions on this solicitation, including requests for information on how to submit a full proposal to this BAA, should be directed to DARPA-BAA-09-51@darpa.mil.

See full BAA document attached.