BATTERY BEACON SYSTEMS AND METHODS OF USE

• US 20180262894A1
• Filed: 05/13/2018
• Published: 09/13/2018
• Est. Priority Date: 03/20/2015
• Status: Abandoned Application

• Current Assignee: PB, Inc.
• Original Assignee: PB, Inc.
• Inventors: Daoura, Daniel J., Pearson-Franks, Nicholas R.
• Application Number:
  US15/978,156
• Publication Number:
  US 20180262894A1
• Time in Patent Office: Days
• CPC Class Codes: H04L 67/02 based on web technology, e.g. hypertext transfer protocol [HTTP]
• CPC Class Codes: H04W 4/02 Services making use of location information
• CPC Class Codes: H04W 4/80 Services using short range communication, e.g. near-field communication [NFC], radio-frequency identification [RFID] or low energy communication
• CPC Class Codes: Y02D 30/70 in wireless communication networks

Abstract

A device for operation as part of a system or network, the device combining a power cell, a battery housing enclosing the power cell, and a radiobeacon, where the battery is configured to supply DC power to an external apparatus and to the radiobeacon in parallel. A sensor or sensor package may also be included in the battery device and reports to the system or network. In response to a sensor or clock-derived trigger, a microcontroller in the battery uses the radiobeacon to broadcast messages to a radio receiver of a smart device or a network system. The radiobeacon has a unique identifier, and because the messages are low energy, low power radio transmissions having a maximum range of less that about 300 ft (about 100 m). A smart device with an installed application and appropriate permissions that receives the beacon signal may track, map and monitor the signal from the device. The device may be provided with a kill switch. In another instance, the device, including a sensor package and radiobeacon, clips on to the battery and can cut off or turn on battery power to an appliance using a radio command.

Claims

1. A smart battery having ON/OFF radio control, which comprises:

a battery body with housing,

an internal electrochemical power cell, said power cell defining an anode and a cathode, anodic pole, cathodic pole,

an internal processor with low energy radioset and supporting logic circuitry (“

radio circuitry”

),

an instruction set in non-volatile memory, wherein said instruction set is executable by said processor, and wherein said processor and radio circuitry are powered by a first power circuit connected to said power cell; and

,

further characterized by an ON/OFF switch positioned on a second power circuit connected to said power cell in parallel to said first power circuit, wherein said switch is electronically operated by said processor and low energy radioset under control from an external radio transmitter, and wherein, when closed, said second power circuit relays a voltage and current from said power cell to said external anodic and cathodic poles and, when open, said second power circuit is not powered.

2. The smart battery of claim 1, wherein said smart battery comprises a timer, and wherein said ON/OFF switch is operating according to a rule according to said timer.

3. The smart battery of claim 2, wherein said timer is configured to toggle said ON/OFF switch according to a duration, according to a timeout, according to a time of day, according to a calendar day, or according to a repeating schedule.

4. The smart battery of claim 1, wherein said radio circuitry comprises one or more sensors with sensor output digitally transmittable by said radioset.

5. The smart battery of claim 4, wherein said radioset comprises a radio transceiver configured to receive commands and report sensor data.

6. The smart battery of claim 4, wherein said one or more sensors comprises a thermistor configured to measure and report battery temperature.

7. The smart battery of claim 4, wherein said one or more sensors comprises an accelerometer configured to report movement of said smart battery.

8. The smart battery of claim 4, wherein said one or more sensors is a voltmeter configured to measure and report a low battery condition.

9. The smart battery of claim 4, wherein said sensor comprises a tactile switch having two states, an open state and a closed state, further wherein said tactile switch is enabled to initiate a setup routine, wherein said setup routine is selected from setup of an alarm rule, setup of a trigger rule, setup of a broadcast of sensor data, setup of a current flow state, setup of a wake-up parameter, or setup of a host device wirelessly connected to said smart battery, further in which said radioset functions in only a transmit mode.

10. The smart battery of claim 4, wherein said sensor data output includes digital data representing a temperature output, a light intensity output, a particulate density output, a smoke-of-combustion sensor output, a gas sensor output, a voltage sensor output, a circuit overload sensor output, a sound sensor output, a sound pattern output from an acoustic sensor, a motion sensor output, a displacement sensor output, an acceleration sensor output, a compass output, a gyroscope output, a humidity sensor output, a temperature sensor output, a pressure sensor output, a radiation sensor output, an ozone sensor output, a button-press output, an open switch output, a proximity sensor output, a GPS position sensor output, a raw GPS satellite data repeater output, a local area radio traffic density recorder, a detection of compatible devices within radio range sensor output, a crowd sensor output;

or a mesh network detector output, a counter output, or a combination of any of the above.

26. The radiojacket-battery system combination of claim 5, further wherein said application is configured to actuate an action in a smart device on receipt of a defined message, to command a secondary device perform an action on receipt of a defined message, or to forward a message or a notification to a cloud host.

11. A radiojacket for contacting the poles of a battery and for relaying power from said poles to a load under external radio control, which comprises:

a radiojacket body with sleeve, anodic end, cathodic end, and internal pocket in said sleeve for receiving an exchangeable battery, said anodic end having an internal anode contact and said cathodic end having an internal cathode contact configured to receive said poles thereof, and said anodic end having an external anode contact and said cathodic end having an external cathode contact configured to convey electric power to a load;

said radiojacket body comprising a microcontroller with low energy radioset and supporting logic circuitry (“

radio circuitry”

), an instruction set in non-volatile memory, wherein said instruction set is executable by said microcontroller, and wherein said microcontroller and radio circuitry are powered by a first power circuit connected across said internal anode contact and said internal cathode contact; and

,

further characterized by an ON/OFF switch positioned on a second power circuit connected to said power cell in parallel to said first power circuit, wherein said switch is electronically operated by said microcontroller and low energy radioset under control from an external radio transmitter, and wherein, when closed, said second power circuit relays a voltage and current from said power cell to said external anode and cathode contacts and, when open, said second power circuit is not powered.

12. The radiojacket of claim 11, wherein said radiojacket comprises a timer, and wherein said ON/OFF switch is operating according to a rule according to said timer.

13. The radiojacket of claim 11, wherein said timer is configured to toggle said ON/OFF switch according to a duration, according to a time of day, according to a calendar day, or according to a repeating schedule.

14. The radiojacket of claim 11, wherein said radio circuitry comprises one or more sensors with sensor output digitally transmittable by said radioset.

15. The radiojacket of claim 14, wherein said radioset comprises a radio transceiver configured to receive commands and report sensor data.

16. The radiojacket of claim 14, wherein said one or more sensors comprises a thermistor configured to measure and report battery temperature.

17. The radiojacket of claim 14, wherein said one or more sensors comprises an accelerometer configured to report movement of said radiojacket.

18. The radiojacket of claim 14, wherein said one or more sensors is a voltmeter configured to measure and report a low battery condition.

19. The radiojacket of claim 14, wherein said sensor comprises a tactile switch having two states, an open state and a closed state, further wherein said tactile switch is enabled to initiate a setup routine, wherein said setup routine is selected from setup of an alarm rule, setup of a trigger rule, setup of a broadcast of sensor data, setup of a current flow state, setup of a wake-up parameter, or setup of a host device wirelessly connected to said radiojacket, further in which said radioset functions in only a transmit mode.

20. The radiojacket of claim 14, wherein said sensor data output includes digital data representing a temperature output, a light intensity output, a particulate density output, a smoke-of-combustion sensor output, a gas sensor output, a voltage sensor output, a circuit overload sensor output, a sound sensor output, a sound pattern output from an acoustic sensor, a motion sensor output, a displacement sensor output, an acceleration sensor output, a compass output, a gyroscope output, a humidity sensor output, a temperature sensor output, a pressure sensor output, a radiation sensor output, an ozone sensor output, a button-press output, an open switch output, a proximity sensor output, a GPS position sensor output, a raw GPS satellite data repeater output, a local area radio traffic density recorder, a detection of compatible devices within radio range sensor output, a crowd sensor output;

or a mesh network detector output, a counter output, or a combination of any of the above.

21. The radiojacket of claim 11, wherein said microcontroller comprises a wake pin configured so that a sleep mode is interrupted to begin or resume active messaging in response to a signal received at said wake pin from a sensor.

22. A system for operating a radiojacket, said radiojacket having a microcontroller, a radio set, supporting circuitry, an ON/OFF switch for controlling a battery, and a cradle with anodic end and cathodic end for reversibly connecting the poles of a battery to contacts on said anodic end and cathodic end, wherein said system further comprises:

a network with administrative server in radio contact with a plurality of smart devices;

instructions for composing a message to be broadcast to at least one said smart device, said message having a unique identifier associated with said radiojacket and with an owner thereof, and a sensor data;

capacity, by said smart device or said server, to decode said unique identifier and sensor data, and to generate a rules-based notification to a smart device based on said unique identifier and sensor data.

23. The system of claim 22, wherein said smart device or said server is configured to aggregate said sensor datum according to time, to place or to a combination of time and place, and to generate a notification based on an analysis of said aggregated data.

24. The system of claim 22, further comprising:

a safety override feature in said radiojacket, wherein said radiojacket is configured to radio a notification to a user if an overheating trend is detected in a battery connected to said radiojacket; and

, to cut power to a load if an overheating condition is detected.

25. A radiojacket-battery system removably installable as a power source in a host device and functional as a notification system, which comprises an application which when copied to, installed and executed in a smart device, causes the smart device to:

a) detect and identify a radiojacket-battery combination in radio proximity thereto;

b) display a setup screen for entering a user profile for one or more radiojacket-battery combinations;

c) receive and analyze a radio message containing sensor data from said radiojacket; and

,

d) provide a notification service by displaying status reports based on said sensor data on a screen of a smart device.

27. The radiojacket-battery system combination of claim 25, further comprising a tactile switch externally mounted on said radiojacket body, said switch having at least one function, wherein said at least one function is to initiate a setup event in a smart device when said switch is actuated and said smart device is in radio proximity.

28. The radiojacket-battery system combination of claim 25, further comprising a battery, wherein a bluetoothed message from said radiojacket is configured to cause said system identify said battery:

radiojacket combination by type of battery and to activate a compatible trash processor enabled to retrieve said battery from trash and to sort said battery by type of battery.