Nth leadless electrode telemetry device, system and method of use

1. A plurality of discrete electrode telemetry devices comprising:

a) a single female snap receptor configured in a leadless body of a single discrete electrode sensor device, the single female snap receptor configured to attach to a single male snap post of a single discrete standard circular disposable electrode patch, wherein the sensor comprises a plurality of plug-in interface ports on the leadless body thereof;

b) a wireless transmitter module disposed in direct connection with the single female snap receptor, the wireless transmitter configured to transmit a plurality of signal data based on a connection and a disconnection of the single female snap receptor thereto;

c) a multiplexor circuit configured to multiplex and combine a plurality of reference signal data collected from the interface ports and a plurality of reference electrodes connected thereto as an output of the wireless transmitter module; and

d) a spooled memory configured to store and relay the plurality of signal data to a smart phone for a multiplexed and a combined transmission from the wireless transmitter module.

2. The plurality of discrete electrode telemetry devices of claim 1 , wherein the plug-in interface ports on each discrete electrode telemetry device comprise a reference cluster in communication with the wireless transmitter and wherein a reference electrode of the reference cluster is shared by any number of sensors.

3. The plurality of discrete electrode telemetry devices of claim 1 , further comprising a programmable switch configured to activate and deactivate a transmission of the wireless transmitter module based on a respective snap connection and a disconnection between the single female snap receptor and the single male snap post.

4. The plurality of discrete electrode telemetry devices of claim 1 , further comprising a programmable switch including a non-transitory computer readable medium having computer useable program code executable to perform operations of an electronic switch configured to control the transmission of the wireless transmitter module despite a snap connection and a disconnection between the single female snap receptor and the single male snap post.

5. The plurality of discrete electrode telemetry devices of claim 1 , wherein the wireless transmitter module is one of an ultrasound and a radio transmitter and is configured to transmit a signal in reference to an electrical ground thereof via a signal from the single female snap receptor to a remote receiver configured to receive the transmission.

6. The plurality of discrete electrode telemetry devices of claim 1 , further comprising a countdown handshake alarm configured to alert a user of the discrete telemetry device that one or both of the transmitter and the receiver are out of a communications range.

7. The plurality of discrete electrode telemetry devices of claim 1 , further comprising an Nth multicolor light emitting diode (LED) wherein an Nth color LED corresponds to a predeterminable Nth telemetry device number, the Nth telemetry device number configured to be transmitted with the transmitted signal.

8. The plurality of discrete electrode telemetry devices of claim 1 , wherein the wireless transmitter module is configured to act as one of a master and a slave in one network and to alternatively act as a slave in another network in a multiple network master-slave protocol configured to enable communication by at least eight telemetry devices and at least one receiver.

9. The plurality of discrete electrode telemetry devices of claim 1 , wherein the body of the single telemetry device is configured in a saucer-like chamfered perimeter shape having a radius similar to a radius of a US minted quarter and a total weight less than a weight of a US minted quarter.

10. A telemetry system comprising a plurality of discrete electrode telemetry devices, comprising:

a) an Nth plurality of button-like wireless and leadless discrete electrode sensor devices and an equal plurality of standard circular disposable electrode patches, wherein a single female snap receptor is configured in a leadless body of each of the discrete electrode sensor devices, each female snap receptor configured to attach to a single male snap post of the plurality of standard circular disposable electrode patches;

b) a multiplexor circuit configured to multiplex and combine a plurality of signal data collected from a plurality of interface ports on each leadless discrete electrode sensor device as a composite output thereof; and

c) a wireless transmitter module disposed in connection with each female snap receptor, each respective wireless transmitter module configured to transmit a signal in reference to an electrical ground thereof to a receiver;

d) a wireless receiver module configured to receive and to process an Nth plurality of transmitted signals at a smart phone from the Nth plurality of discrete electrode telemetry devices into an Nth−1 number of signals greater than zero; and

e) a reference cluster comprising the plug-in interface ports on each discrete electrode sensor device and a plurality of reference electrodes connected therein, wherein a reference electrode of the reference cluster is shared by any number of sensors.

11. The telemetry system of claim 10 , wherein at least one of the Nth plurality of discrete electrode telemetry devices is configured as a ground reference device for the rest of the Nth plurality of telemetry devices.

12. The telemetry system of claim 10 , further comprising an Nth plurality of various color light emitting diodes (LED) wherein an Nth color LED corresponds to a Nth telemetry device number, the Nth telemetry device number configured to be transmitted with the transmitted signal.

13. The telemetry system of claim 10 , wherein the wireless transmitter module is configured to act as one of a master and a slave in one network and to alternatively act as a slave in another network in a multiple network master-slave protocol to enable communication by more than 8 telemetry devices and at least one remote receiver.

14. The telemetry system of claim 10 , wherein the wireless receiver module is synchronized with the wireless transmitter module via a temporal multiplexor wherein the first wireless transmitter module to transmit is assigned a first synchronization and a second wireless transmitter module to transmit is assigned a second synchronization and so forth until a timeout period for a last wireless transmitter module to transmit has occurred.

15. The telemetry system of claim 10 , wherein the wireless receiver module resides in a smart cell phone configured for data processing and transmission of the processed data to another receiver comprising a personal computer and a computer server.

16. A method for telemetry, the method comprising:

a) providing an Nth plurality of wireless and leadless discrete electrode telemetry devices and an equal plurality of standard circular disposable electrode patches attachable to a patient, wherein a single female snap receptor is configured in a leadless body of each of the discrete electrode telemetry devices, each female snap receptor configured to attach to a single male snap post of the plurality of standard circular disposable electrode patches;

b) multiplexing and merging a plurality of signal data collected from a plurality of interface ports on each leadless discrete electrode telemetry device as an output thereof;

c) transmitting the multiplexed and merged output signal in reference from the respective female snap receptor to a remote receiver via a wireless transmitter processor disposed in connection with each female snap receptor;

d) receiving and processing an Nth plurality of the transmitting signals from the Nth plurality of discrete electrode telemetry devices into an Nth−1 number of signals greater than zero via a receiver processor at a smart phone; and

e) spooling a memory configured to store and relay the plurality of signal data for a multiplexed and a merged piecewise transmission from the wireless transmitter module based on a connection and a disconnection of the single female snap receptor to the wireless transmitter module and the ground thereof.

17. The method of telemetry of claim 16 , further comprising creating an Nth−1 number of composite signals including an Nth transmitting signal and a common ground reference signal.

18. The method of telemetry of claim 16 , further comprising compressing a real time abscissa component and scaling a magnitude ordinate component of the spooled memory for a transmission to the receiver.

19. The method of telemetry of claim 16 , wherein the plurality of discrete electrode devices comprises at least 3 devices and wherein an interface on each discrete electrode telemetry device comprises one of a wireless and a wired ground port in communication with the wireless transmitter.

20. The method of telemetry of claim 16 , further comprising snapping the wireless and leadless telemetry devices onto the electrode patches and creating a snapped pair for attaching onto a patient in a configuration including up to 18 electrode patches and an equal number of wireless and leadless telemetry devices and at least one wireless receiver processor.