SELF-CHARGING POWER CONTROLLED SYSTEM FOR LOCATING ANIMALS BY GPS

• US 20120206296A1
• Filed: 02/16/2011
• Published: 08/16/2012
• Est. Priority Date: 02/16/2011
• Status: Abandoned Application

• Current Assignee: Carbon Global, LLC
• Original Assignee: Carbon Global, LLC
• Inventors: Wan, Lawrence A.
• Application Number:
  US13/028,511
• Publication Number:
  US 20120206296A1
• Time in Patent Office: Days
• US Class Current: 342/357.31
• CPC Class Codes: A01K 11/008 incorporating GPS
• CPC Class Codes: G01S 19/14 specially adapted for specific applications
• CPC Class Codes: G01S 19/34 Power consumption
• CPC Class Codes: G01S 19/35 Constructional details or hardware or software details of the signal processing chain
• CPC Class Codes: G08B 21/0269 System arrangements wherein the object is to detect the exact location of child or item using a navigation satellite system, e.g. GPS
• CPC Class Codes: G08B 21/0294 Display details on parent unit
• CPC Class Codes: H02K 7/1853 driven by intermittent forces

Abstract

A portable tracking unit attached to a movable object, such as an animal'"'"'s collar, includes a GPS receiver to receive GPS signals from multiple satellites for use in multilateration calculations in determining the current position of the tracking unit. A processor in the tracking unit processes the GPS data signals to determine the tracking unit'"'"'s position, and a GSM mobile wireless transmitter is used to transmit the geographic coordinates of the tracking unit to a remote monitoring unit. The tracking unit also includes a motion detector that outputs a motion signal when the animal is on the move. A motion signal “wakes up” the processor that wakes up the GPS receiver and the GSM transmitter to begin calculating and transmitting the geographic coordinates of the tracking unit. The tracking unit also includes electrical generators configured to transduce mechanical motion of the tracking unit into electrical energy to recharge a battery and power devices. The portable tracking unit is fabricated monolithically in silicon with circuitry integrated with silicon micro-machined motion sensor, as well as power generators, and packaged through silicon wafer bonding. A remote computing device receives the geographic coordinates of the tracking device and indicates to a user the position of the tracking device in relation to a map. An alert may also be provided if the location of the tracking device is outside a programmed safe zone.

Claims

1. A system for tracking the location of a movable object, the system comprising:

a portable tracking unit attached to the movable object, the tracking unit comprising;

an overhead position locater receiver configured to receive position signals from a plurality of overhead position location devices and provide overhead position location data from the received position signals;

a wireless communications transmitter configured to wirelessly transmit a tracking unit location signal representative of the geographic location of the tracking unit;

a motion detector configured to detect when the portable tracking unit is moving and to provide a motion signal;

a tracking unit processor programmed to receive the motion signal and control the receiver and transmitter to operate in a normal operation mode, to receive overhead position location data from the receiver, to process the overhead position location data to calculate the present geographic location of the tracking unit and provide a tracking unit location signal;

to control the transmitter to wirelessly transmit the tracking unit location signal, and to control the transmitter and receiver to operate in a low-power consumption sleep mode;

a battery configured to provide electrical power to the receiver, transmitter, and processor; and

an electrical energy generator configured to transduce mechanical motion of the portable tracking unit into electrical energy, the electrical energy generator connected to the battery to automatically recharge the battery.

2. The tracking system of claim 1 wherein the motion detector comprises a multiple-axis motion detector.

3. The tracking system of claim 1 wherein the wireless communications transmitter is configured to transmit the tracking unit location signal in at least one of real time transmission, periodic transmission, and burst transmission.

4. The tracking system of claim 1 wherein the portable tracking unit further comprises a memory in which is stored an identification of the tracking unit;

wherein the tracking unit processor is further programmed to access the memory to retrieve the identification and to control the transmitter to transmit the identification with the calculated tracking unit location signal.

5. The tracking system of claim 1 further comprising a plurality of power generators, each of which is configured to transduce mechanical motion of the tracking unit to electrical energy, one of which is connected to recharge the battery, and another is connected directly to the transmitter to provide electrical power for operation thereof.

6. The tracking system of claim 1 wherein the portable tracking unit excepting the battery is fabricated monolithically in silicon with circuitry integrated with silicon micro-machined motion sensor, as well as power generators, and packaged through silicon wafer bonding whereby optimum miniaturization, lightness in weight, water and weather proofing, low energy consumption, mass batch manufacture capability are achieved.

7. The tracking system of claim 1 wherein the overhead position locator receiver is configured to receive position signals from a plurality of GPS satellites and provide GPS position location data from the received GPS position signals.

8. The tracking system of claim 1 further comprising a monitoring unit located remotely from the tracking unit, the monitoring unit comprising:

a monitoring unit memory in which is stored geographical data representing a safe geographic area in which the tracking unit is expected to remain;

a monitoring unit processor programmed to receive the tracking unit location signal, retrieve from the memory the data representing a safe geographic area, compare the tracking unit location to the safe geographic area data, and provide an alert signal if the location of the tracking unit is outside the safe geographic area.

9. The tracking system of claim 8 wherein the remote monitoring unit comprises a personal computer having the monitoring unit processor, the monitoring unit processor being further programmed to provide the alert in auditory form and in visual form.

10. The tracking system of claim 8 wherein the monitoring unit processor is further programmed to display the tracking unit'"'"'s position in relation a geographical map.

11. The tracking system of claim 8 wherein the remote monitoring unit comprises a smart phone having the monitoring unit processor, the monitoring unit processor being further programmed to provide the alert in auditory form and in visual form.

12. The tracking system of claim 1 wherein the tracking unit processor is further programmed to periodically monitor the motion detector to determine if motion is detected, upon no more motion detected, to start a timer of predetermined time period, and having not received a motion signal within the time period, control the transmitter to go to a low power consumption sleep mode.

13. The tracking system of claim 12 wherein the battery power is always provided to the motion detector even when other devices are in sleep mode, with the tracking unit processor also having a low power consumption mode, but further programmed to continually monitor the motion detector for a motion signal, and upon receiving one, the tracking unit processor goes to a higher power consumption mode and also controls the transmitter to a higher power consumption mode.

14. The tracking system of claim 1 wherein the tracking unit further comprises a radio frequency signal device programmed to transmit an RF location signal in response to receiving a predefined query signal.

15. The tracking system of claim 14 wherein the tracking unit processor is further programmed to periodically transmit the RF location signal when reception of GPS signals cease for a predetermined period of time.

16. A system for tracking the location of a movable object, the system comprising:

a portable tracking unit attached to the movable object, the tracking unit comprising;

a GPS locator receiver configured to receive position signals from a plurality of GPS satellites and provide GPS position location data from the received position signals;

a GSM wireless communications transmitter configured to wirelessly transmit a tracking unit location signal representative of the geographic location of the tracking unit;

a multiple-axis motion detector configured to detect when the portable tracking unit is moving and to provide a motion signal;

a tracking unit processor programmed to receive the motion signal and control the receiver and transmitter to operate in a normal operation mode, to receive GPS location data from the receiver, to process the GPS position location data to calculate the present geographic location of the tracking unit and provide a tracking unit location signal;

to control the GSM transmitter to wirelessly transmit the tracking unit location signal, and to control the GSM transmitter and GPS receiver to operate in a low-power consumption sleep mode;

a battery configured to provide electrical power to the receiver, transmitter, and tracking unit processor; and

a plurality of electrical energy generators configured to transduce mechanical motion of the portable tracking unit into electrical energy, the electrical energy generators connected to the battery to automatically recharge the battery, to the GPS receiver to power its operation, and to the GSM transmitter to power its operation;

a monitoring unit located remotely from the tracking unit, the monitoring unit comprising;

a monitoring unit memory in which is stored a series of geographical data representing a safe geographic area in which the tracking unit is expected to remain;

a monitoring unit processor programmed to receive the tracking unit location signal, retrieve from the memory the data representing a safe geographic area, compare the tracking unit location to the safe geographic area data, and provide an alert signal if the location of the tracking unit is outside the safe geographic area.

17. The tracking system of claim 16 wherein the wireless communications transmitter is configured to transmit the tracking unit location signal in at least one of real time transmission, periodic transmission, and burst transmission.

18. The tracking system of claim 16 wherein the tracking unit further comprises a radio frequency signal device programmed to transmit a location signal in response to receiving a predefined query signal.

19. The tracking system of claim 18 wherein the tracking unit processor is further programmed to periodically transmit the location signal when reception of GPS signals cease for a predetermined period of time.

20. The tracking system of claim 16 wherein the portable tracking unit excepting the battery is fabricated monolithically in silicon with circuitry integrated with silicon micro-machined motion sensor, as well as power generators, and packaged through silicon wafer bonding whereby optimum miniaturization, lightness in weight, water and weather proofing, low energy consumption, mass batch manufacture capability are achieved.

21. A method for tracking the location of a movable object, the system comprising:

receiving position signals from a plurality of overhead position location devices;

processing the received signals to extract location assist data and providing overhead position location data from the received position signals;

detecting motion of the movable object and providing a motion signal;

upon receiving the motion signal, processing the overhead position location data to calculate the present geographic location of the movable object and generate a movable object location signal;

wirelessly transmitting movable object location signal representative of the geographic location of the movable object;

providing operational power from a battery source located with the movable object;

transducing mechanical movement of the movable object into electrical energy and recharging the battery source with the transduced electrical energy;

operating in a low power consumption move when the movable object is stationary;

receiving the geographic location signal representative of the movable object at a location remote from the movable object; and

processing the received geographic location signal of the movable object and displaying the geographic location of the movable object in relation to a geographic coordinate map.

22. The method of claim 21 further comprising powering each of the receiving and transmitting steps by separately transducing mechanical motion of the movable object and separately providing electrical energy with which to perform the receiving and transmitting steps.

23. The method of claim 21 further comprising transmitting a location signal in response to receiving a predefined query signal;

and

periodically transmitting the location signal when reception of GPS signals cease for a predetermined period of time.

24. The method of claim 21 further comprising fabricating devices, excepting a battery, monolithically in silicon with circuitry integrated with silicon micro-machined motion sensor, as well as power generators, and packaged through silicon wafer bonding whereby optimum miniaturization, lightness in weight, water and weather proofing, low energy consumption, mass batch manufacture capability are achieved.