Integrative software radio

1. An integrative software radio embodying a single multi-radio device including functionalities that are a superset of a plurality of individual discrete radio devices, the integrative software radio comprising:

a radio frequency transmitter that integrates transmission capabilities of a plurality of discrete transmitters such that the radio frequency transmitter is configured to generate a first amalgamated waveform that is a combination of individual waveforms, each individual waveform corresponding to the transmission capabilities of its respective one of the plurality of discrete transmitters, wherein the transmission capabilities each of the plurality of discrete transmitters comprise operating characteristics different from one or more of the other discrete transmitters, wherein a waveform of a discrete transmitter comprises an adjustable electromagnetic wavefront and a proprietary waveform generation component;

a radio frequency receiver that integrates reception capabilities of a plurality of discrete receivers such that the radio frequency receiver is configured to receive a plurality of waveforms generated by two or more discrete transmitters, wherein each transmitter operates according to a different set of operating characteristics;

a mission component communicatively coupled to the plurality of discrete transmitters and configured to alter the wavefront of at least one of the plurality of discrete transmitters to reduce interference among the at least one of the plurality of discrete transmitters without adjusting the proprietary waveform generation component, wherein altering the waveform comprises characterizing a non-linear response of at least one of the plurality of discrete transmitters in predicting frequency and power levels of distortion products based on the non-linear responses; and

a first superconnector comprising:

a first connector portion disposed on and physically attached to the mission component and comprising one or more first electrical connections;

a second connector portion disposed on and physically attached to the first radio device, the first super connector and comprising one or more second electrical connections complementary to the one or more first electrical connections and configured to align with the one or more first electrical connections;

wherein when the first connector portion is mated with the second connector portion the first superconnector detachably physically couples the mission component to the first radio device and the one or more first electrical connections contact with and electrically couple to their corresponding ones of the one or more second electrical connections thereby such that the first super connector electrically couples the mission component to the first radio device;

a second superconnector comprising:

a third connector portion disposed on and physically attached to the mission component and comprising one or more third electrical connections;

a fourth connector portion disposed on and physically attached to the first radio device, the third super connector and comprising one or more fourth electrical connections complementary to the one or more third electrical connections and configured to align with the one or more third electrical connections; and

wherein when the third connector portion is mated with the fourth connector portion the second superconnector detachably physically couples the mission-component to the second radio device and the one or more third electrical connections contact with and electrically couple to their corresponding ones of the one or more fourth electrical connections thereby such that the second superconnector electrically couples the mission component to the first radio device.

2. The integrative software radio of claim 1 , wherein the operating characteristics comprise at least one of operating frequency, modulation scheme, data coding, data formatting, and signal parameters.

3. The integrative software radio of claim 1 , further comprising a processor comprising one or more processing devices and configured to control operation of the radio frequency transmitter and the radio frequency receiver.

4. The integrative software radio of claim 1 , wherein the wavefront comprises electromagnetic characteristics that are adjustable in a proprietary transmitter without accessing proprietary waveform generation components.

5. The integrative software radio of claim 1 , further comprising an agile RF filter configured to attenuate potentially interfering signals from one of the plurality of discrete transmitters.

6. The integrative software radio of claim 1 , further comprising an interface in the mission component, wherein the interface is configured to use a Digital Message Transfer Devices (DMTD) protocol.

7. The integrative software radio of claim 1 , wherein the mission component further comprises a programmable connector-based power management device having an output communicatively coupled to each of the plurality of discrete transmitters.

8. The integrative software radio of claim 1 , further comprising: a power storage device;

an electrical connector coupled between the power storage device and the plurality of discrete transmitters;

a power management device coupled to the power storage device and to the electrical connector, the power management device comprising

a processor having a plurality of inputs and outputs;

a charge controller having a first electrical interface coupled to the power storage device, a second electrical interface coupled to the processor, and a third electrical interface coupled to the plurality of discrete transmitters via the electrical connector;

wherein the charge controller is configured to charge power storage device via the first interface and provide electrical power to the plurality of discrete transmitters via the electrical connector.

9. The integrative software radio of claim 8 , further comprising a buck/boost regulator having an input configured to receive electrical power from an auxiliary power supply and an output coupled to the charge controller.

10. The integrative software radio of claim 8 , wherein the charge controller is further configured to monitor data from the power storage device to determine the state of charge of the power storage device.

11. The integrative software radio of claim 8 , wherein the processor is configured to receive an electronic serial number from at least one of the first and second radio devices and to determine an identity of the device from which an electronic serial number is received before power is applied to that device.

12. The integrative software radio of claim 1 , wherein the mission component is configured to:

query interfaces of the integrative software radio to detect radio devices; determine a radio type of detected radio devices;

configure the integrative software radio for operation based on the determined radio type of detected radio devices;

receive commands for operation of the integrative software radio; and

control the detected radio devices in response to the received commands.

13. The integrative software radio of claim 12 , wherein the mission component is further configured to activate one of the interfaces, perform command and control functions, or enter a smart power mode.

14. The integrative software radio of claim 13 , wherein the smart power mode comprises an operational state in which the integrative software radio maintains communication with external systems, parses incoming commands, reports status, handles interruptions, or performs other management functions.

15. The integrative software radio of claim 12 , wherein the mission component is further configured to enter a communication mode based on a determined type of detected device.

16. The integrative software radio of claim 1 , wherein the mission component is configured to perform a self-test operation, the self-test operation comprising:

polling a status of one of a plurality of output ports to determine whether a device is connected to the port;

if a storage device is identified on the output port, reading contents of the identified storage device and comparing the read contents against a list of predetermined devices to determine whether a detected device is recognized;

assigning voltage and current settings for that device.

17. The integrative software radio of claim 16 , further comprising identifying a port as unsafe if a valid connection is not detected on that port during the polling operation.

18. The integrative software radio of claim 17 , further comprising repeating the process of claims 16 and 17 for each port of the integrative software radio.

19. An integrative software radio embodying a single multi-radio device including functionalities that are a superset of a plurality of individual discrete radio devices, the integrative software radio comprising:

a radio frequency transmitter that integrates transmission capabilities of a plurality of discrete transmitters such that the radio frequency transmitter is configured to generate a first amalgamated waveform that is a combination of individual waveforms, each individual waveform corresponding to the transmission capabilities of its respective one of the plurality of discrete transmitters, wherein the transmission capabilities each of the plurality of discrete transmitters comprise operating characteristics different from one or more of the other discrete transmitters, wherein a waveform of a discrete transmitter comprises an adjustable electromagnetic wavefront and a proprietary waveform generation component;

a radio frequency receiver that integrates reception capabilities of a plurality of discrete receivers such that the radio frequency receiver is configured to receive a plurality of waveforms generated by two or more discrete transmitters, wherein each transmitter operates according to a different set of operating characteristics;

a mission component communicatively coupled to the plurality of discrete transmitters and configured to alter the wavefront of at least one of the plurality of discrete transmitters to reduce interference among the at least one of the plurality of discrete transmitters without adjusting the proprietary waveform generation component, wherein altering the waveform comprises characterizing a non-linear response of at least one of the plurality of discrete transmitters in predicting frequency and power levels of distortion products based on the non-linear responses;

a first superconnector comprising:

a first connector portion disposed on and physically attached to the mission component and comprising one or more first electrical connections;

a second connector portion disposed on and physically attached to the first radio device, the first super connector and comprising one or more second electrical connections complementary to the one or more first electrical connections and configured to align with the one or more first electrical connections;

wherein when the first connector portion is mated with the second connector portion the first superconnector detachably physically couples the mission component to the first radio device and the one or more first electrical connections contact with and electrically couple to their corresponding ones of the one or more second electrical connections thereby such that the first super connector electrically couples the mission component to the first radio device;

a second superconnector comprising:

a third connector portion disposed on and physically attached to the mission component and comprising one or more third electrical connections;

a fourth connector portion disposed on and physically attached to the first radio device, the third super connector and comprising one or more fourth electrical connections complementary to the one or more third electrical connections and configured to align with the one or more third electrical connections; and wherein when the third connector portion is mated with the fourth connector portion the second superconnector detachably physically couples the mission-component to the second radio device and the one or more third electrical connections contact with and electrically couple to their corresponding ones of the one or more fourth electrical connections thereby such that the second superconnector electrically couples the mission component to the first radio device;

a power storage device;

an electrical connector coupled between the power storage device and the plurality of discrete transmitters; and

a power management device coupled to the power storage device and to the electrical connector, the power management device comprising:

a processor having a plurality of inputs and outputs;

a charge controller having a first electrical interface coupled to the power storage device, a second electrical interface coupled to the processor, and a third electrical interface coupled to the plurality of discrete transmitters via the electrical connector,

wherein the charge controller is configured to charge power storage device via the first interface and provide electrical power to the plurality of discrete transmitters via the electrical connector.

20. The integrative software radio of claim 19 , wherein the operating characteristics comprise at least one of operating frequency, modulation scheme, data coding, data formatting, and signal parameters.

21. The integrative software radio of claim 19 , wherein the wavefront comprises electromagnetic characteristics that are adjustable in a proprietary transmitter without accessing proprietary waveform generation components.

22. The integrative software radio of claim 19 , wherein the charge controller is further configured to monitor data from the power storage device to determine the state of charge of the power storage device.