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A method and system for communicating using pulsed radar signal data links is disclosed. The method comprises encoding downlink data with a signature sequence as a secondary function onto a continuous wave pulse signal having a primary function at a master device. The data-encoded pulse signal from

A method and system for communicating using pulsed radar signal data links is disclosed. The method comprises encoding downlink data with a signature sequence as a secondary function onto a continuous wave pulse signal having a primary function at a master device. The data-encoded pulse signal from the master device is interpreted at one or more slave devices configured to receive the pulse signal within a first communications bandwidth of the primary and secondary functions. The master device synchronizes returning communication transmissions from each of the one or more slave devices for the secondary function within a prescribed return interval of the primary function.

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What is claimed is: 1. A method for communicating using a pulsed radar signal data link, the method comprising: encoding downlink data with a signature sequence as a secondary function onto a continuous wave pulse signal having a primary function at a master device; interpreting the data-encoded pu

What is claimed is: 1. A method for communicating using a pulsed radar signal data link, the method comprising: encoding downlink data with a signature sequence as a secondary function onto a continuous wave pulse signal having a primary function at a master device; interpreting the data-encoded pulse signal from the master device at one or more slave devices configured to receive the pulse signal within a first communications bandwidth of the primary and secondary functions; and synchronizing returning communication transmissions from each of the one or more slave devices for the secondary function at the master device within a prescribed return interval of the primary function. 2. The method of claim 1, further comprising: allocating control of the one or more slave devices to at least one additional master device authorized to communicate with the one or more slave devices; and maintaining a substantially constant received power level at the master device as the synchronized communication transmissions return from each of the slave devices. 3. The method of claim 2, wherein allocating control of the one or more slave devices comprises: providing an affiliation signature for passing control of at least a portion of the one or more slave devices in a first area from a first master device to a second master device; and sending the affiliation signature through external master-to-master communications. 4. The method of claim 1, further comprising using the data-encoded pulse signal to instruct at least one of the one or more slave devices to alter a flight pattern to acquire a target. 5. The method of claim 1, wherein encoding the downlink data further comprises: performing forward error correction on the downlink data; and modulating the corrected downlink data with the signature sequence prior to transmission of the continuous wave pulse signal. 6. The method of claim 1, wherein interpreting the data-encoded pulse signal from the master device at the one or more slave devices comprises: demodulating and decoding the signal using cyclic code shift keying to interpret the signature sequence; and interleaving returning uplink data from the one or more slave devices on the pulse signal for use by the master device. 7. A computer-readable medium having executable instructions for performing a method for communicating using a pulsed radar signal data link according to claim 1. 8. A method for communicating using a pulsed radar signal data link, the method comprising: encoding data transmissions with a signature sequence as a secondary function onto a pulsed radar signal having a primary function; synchronizing uplink data responses of the encoded data transmissions within a pulse return interval of the primary function; and as returning uplink data are received that exceed the pulse return interval of the pulsed radar signal return, stacking frames of the returning uplink data using a scaled uplink within a first communications bandwidth of the pulsed radar signal to substantially eliminate interference between the primary and secondary functions. 9. The method of claim 8, wherein encoding the data transmissions further comprises: performing forward error correction on the data transmissions; and modulating the corrected data with the signature sequence prior to transmission of the pulsed radar signal. 10. The method of claim 8, wherein synchronizing the responses to the encoded data transmissions comprises: arranging the returning uplink data into orthogonal reply slots, wherein a first portion of the reply slots is allocated for a first receiver slot of a master device; and maintaining a substantially constant received power level at the master device. 11. The method of claim 8, wherein stacking the frames of the returning uplink data using the scaled uplink comprises separating each of the returning encoded data frames to detect one or more sources of the returning uplink data with multi-user detection. 12. A computer-readable medium having executable instructions for performing a method for communicating using a pulsed radar signal data link according to claim 8. 13. An electronic system, comprising: a master device, including: a master controller; a master transmitter communicatively coupled to the master controller, the master transmitter operable to transmit data-encoded pulses as downlink data having a signature sequence on a first pulsed radar signal; and a master receiver communicatively coupled to the master controller, the master receiver operable to synchronize uplink data received within at least one return pulse interval of the first pulsed radar signal; one or more slave devices, each of the slave devices including: a slave controller; a slave transmitter communicatively coupled to the slave controller, the slave transmitter operable to transmit at least a portion of the uplink data; and a slave receiver communicatively coupled to the slave controller, the slave receiver operable to receive the downlink data from the master device; wherein the master controller scales the first pulsed radar signal for receiving the uplink data from the one or more slave devices on a scaled data uplink within a first communications bandwidth; and wherein the master receiver detects each of the slave devices using the scaled data uplink to maintain a substantially constant received power level at the master device. 14. The system of claim 13, wherein the master device comprises an aircraft, a radar altimeter mounted on the aircraft, a tracking radar, a ground controller, or a millimeter wave imager. 15. The system of claim 13, wherein the master controller is operable to: use the encoded downlink data to instruct at least one of the one or more slave devices to alter a flight pattern to acquire a target; and manage communications signal enhancements to substantially cover data link ranges for each of the slave devices. 16. The system of claim 13, wherein the master controller is further operable to: provide an affiliation signature for passing control of at least a portion of the one or more slave devices in a first area from a first master device to a second master device; and send the affiliation signature through external master-to-master communications. 17. The system of claim 13, wherein the master transmitter is further operable to: perform forward error correction on the downlink data; and modulate the corrected downlink data with the signature sequence prior to transmission of the first pulsed radar signal. 18. The system of claim 13, wherein the one or more slave devices comprise a programmable guided munitions, mobile communications devices, distributed radar tracking sensors, or millimeter wave imaging sensors. 19. The system of claim 13, wherein each slave controller is configured to return streaming video images of a target impact point for real-time assessment. 20. The system of claim 13, wherein each slave receiver is further operable to: demodulate and decode the first pulsed radar signal using cyclic code shift keying to interpret the signature sequence.