Systems and methods for wearable initiated handshaking
Systems and methods for device handshaking are described. Embodiments for client device and associated wearable device initiated handshaking are described. In certain embodiments, a device such as wearable camera eyeglasses having both high-speed wireless circuitry and low-power wireless circuitry communicates with a client device. The low-power wireless circuitry is used for signaling and to manage power on handshaking for the high-speed circuitry in order to reduce power consumption. An analysis of a high-speed connection status may be performed by a client device, and used to conserve power at the glasses with signaling from the client device to indicate when the high-speed circuitry of the glasses should be powered on.
1. A method comprising:
communicating, from a client device to a wearable camera device via a low-power wireless connection, a new data query;
receiving, from the wearable camera device in response to the new data query, a new camera data message identifying first camera data stored on the wearable camera device;
performing, by the client device, a high-speed connection status check;
communicating, in response to the high-speed connection status check, a connection communication from the client device to the wearable camera device, wherein the connection communication instructs the wearable camera device to activate high-speed wireless circuitry of the wearable camera device;
establishing a high-speed wireless connection to the wearable camera device for receipt of the first camera data from the wearable camera device.
2. The method of claim 1 further comprising:
communicating, from the client device to the wearable camera device using the low-power wireless connection, a sleep-state communication instructing the wearable camera device to power down high-speed circuitry associated with the high-speed wireless connection.
3. The method of claim 2 wherein communication of the new data query is triggered by an application launch.
4. The method of claim 2 wherein communication of the new data query is triggered by a periodic data check timer.
5. The method of claim 2 wherein the high-speed connection is an Institute of Electrical and Electronics Engineers (IEEE) 802.11 (Wi-Fi) connection.
6. The method of claim 5 wherein communication of the new data query is triggered by identification of a network disconnect associated with Wi-Fi circuitry of the client device, wherein the high-speed connection is established using the Wi-Fi circuitry of the client device.
7. The method of claim 6 wherein the low-power connection is a Bluetooth low energy (LE) connection.
8. The method of claim 2 further comprising:
interrupting operation of the application prior to establishing the high-speed wireless connection; and
resuming operation of the application following reception of the first camera data.
9. The method of claim 2 further comprising:
establishing the low-power connection using a background process operating on the client device.
10. The method of claim 2 wherein the high-speed connection status check comprises a high-speed connection success prediction made by the client device.
11. The method of claim 10 wherein the high-speed connection success prediction by the client device indicates a threshold likelihood of connection success based on a current use status of client-device high-speed wireless circuitry.
12. The method of claim 11 wherein the high-speed connection success prediction is further based on a client device user input received in response to a user prompt presented at a display of the client device.
13. The method of claim 2 further comprising:
receiving, prior to establishing the high-speed wireless connection, a connection unsuccessful communication from the wearable camera device;
communicating a network adjustment command from the client device to the wearable camera device.
14. The method of claim 2 further comprising, after powering down the high-speed processor and the high-speed wireless circuitry after completion of the communication of the first camera data to the client device:
communicating via the low-power wireless connection, a second new data query;
receiving, from the wearable camera device in response to the second new data query, a second new camera data message identifying second camera data stored on the wearable camera device;
performing, by the client device, a second high-speed connection status check;
communicating, via the low-power wireless connection in response to the second high-speed connection status check, a second connection communication from the client device to the wearable camera device, wherein the second connection communication instructs the wearable camera device to activate the high-speed wireless circuitry of the wearable camera device.
15. The method of claim 14 further comprising:
failing to establishing the high-speed wireless connection within a threshold time period; and
communicating, from the client device to the wearable camera device using the low-power wireless connection, a second sleep-sleep state communication instructing the wearable camera device to power down high-speed circuitry without receiving the second camera data at the end of the threshold time period.
16. A client device comprising:
at least one processor configured to perform a high-speed connection status check;
a memory coupled to the at least one processor;
low-power circuitry configured to:
establish a low-power wireless connection with a wearable camera device;
communicate via the low-power wireless connection, a new data query;
receiving, from the wearable camera device in response to the new data query, a new camera data message identifying first camera data stored on the wearable camera device; and
high-speed circuitry configured to:
communicate, in response to the high-speed connection status check, a connection communication from the client device to the wearable camera device, wherein the connection communication instructs the wearable camera device to activate high-speed wireless circuitry of the wearable camera device;
establish a high-speed wireless connection to the wearable camera device; and
receive the first camera data.
17. The client device of claim 16 further comprising:
a cellular modem configured to communicate the first camera data to an application server using an application operating on the at least one processor;
wherein the low-power circuitry is further configured to communicate a sleep-sleep state communication to the wearable camera device instructing the wearable camera device to power down high-speed circuitry associated with the high-speed wireless connection.
18. A non-transitory computer readable medium comprising computer readable instructions that, when executed by one or more processors of a client device, cause the client device to:
communicate, from a client device to a wearable camera device via a low-power wireless connection, a new data query;
receive, from the wearable camera device in response to the new data query, a new camera data message identifying first camera data stored on the wearable camera device;
perform, by the client device, a high-speed connection status check;
communicate, in response to the high-speed connection status check, a connection communication from the client device to the wearable camera device, wherein the connection communication instructs the wearable camera device to activate high-speed wireless circuitry of the wearable camera device;
establish a high-speed wireless connection to the wearable camera device for receipt of the first camera data from the wearable camera device.
19. The non-transitory computer readable medium of claim 18 wherein the high-speed wireless connection is a Wi-Fi direct connection.
20. The non-transitory computer readable medium of claim 18 wherein the high-speed connection status check comprises a high-speed connection success prediction made by the client device;
wherein the high-speed connection success prediction by the client device indicates a threshold likelihood of connection success based on a current use status of client-device high-speed wireless circuitry; and
wherein the high-speed connection success prediction is further based on a client device user input received in response to a user prompt presented at a display of the client device.