Smart mesh electrical socket

• US 10,383,201 B1
• Filed: 04/01/2019
• Issued: 08/13/2019
• Est. Priority Date: 01/04/2017
• Status: Active Grant

• Current Assignee: Sirqul, Inc.
• Original Assignee: Sirqul, Inc.
• Inventors: Frederick, Robert, Schleppy, John, Dodds, Russell Brian, Le, Thang, Yu, Justin Jaewook, Cifuentes, Luis, Gay, Chris
• Primary Examiner(s): A, Minh D
• Assistant Examiner(s): Cho, James H
• Application Number:
  US16/372,386
• Publication Number:
  US 20190230777A1
• Time in Patent Office: 134 Days
• Field of Search: None
• CPC Class Codes: F21V 23/06 the elements being coupling devices , e.g. connectors
• CPC Class Codes: H04B 5/72 for local intradevice communication
• CPC Class Codes: H04L 12/2816 Controlling appliance services of a home automation network by calling their functionalities arrangements in telecontrol or telemetry systems for selectively calling a substation from a main station; in which substation desired apparatus is selected for applying a control signal thereto or for obtaining measured values therefrom H04Q9/00
• CPC Class Codes: H05B 47/19 via wireless transmission
• CPC Class Codes: Y02B 20/40 Control techniques providing energy savings, e.g. smart controller or presence detection

Abstract

Techniques are described for providing a smart-mesh socket. The smart-mesh socket may be sized and shaped to be engaged with a conventional electrical socket of one or more types (e.g., a USB receptacle providing DC electrical power) to provide power to one or more circuits housed within the smart-mesh socket. These circuits may include, for example, a main circuit that includes at least a dual processor for controlling the operation and communications of at least two communication circuits. The dual processors may execute instructions for an operating system, thus allowing the smart-mesh socket to provide enhanced capabilities for networked devices. One or more first communication circuits may each include one or more transceivers that allow the first communication circuit to send and receive communications with other devices over wireless network(s) using one or multiple wireless communication protocols.

Claims

1. A smart-mesh socket comprising:

a bottom cap connector that includes a first Universal Serial Bus (USB) connector;

a smart-mesh circuit that is electrically coupled to the bottom cap connector and that includes;

a main circuit with one or more processing units and one or more memory components; and

multiple wireless circuits that support multiple wireless communication protocols, wherein one or more of the multiple wireless circuits each includes a transceiver to send and receive communications via a mesh network that includes a plurality of smart-mesh sockets and using at least one of a wireless broadband long-term evolution (LTE) communication protocol or a wireless narrow-band internet-of-things (NB-IoT) communication protocol,

wherein the one or more memory components store software instructions that, when executed by at least one of the one or more processing units, cause the smart-mesh socket to participate in the mesh network and to participate in providing aggregated functionality from the plurality of smart-mesh sockets; and

a top socket including a second USB connector that is electrically coupled to the bottom cap USB connector.

2. The smart-mesh socket of claim 1 wherein the first USB connector is a USB plug that is sized and shaped to be electrically coupled with a USB receptable, and wherein the second USB connector is a USB receptable that is sized and shaped to receive and be electrically coupled with a USB plug of another device.

3. The smart-mesh socket of claim 1 wherein the second USB connector is a USB plug that is sized and shaped to be electrically coupled with a USB receptable, and wherein the first USB connector is a USB receptable that is sized and shaped to receive and be electrically coupled with an external USB plug.

4. The smart-mesh socket of claim 1 wherein the multiple wireless communication protocols include the wireless broadband LTE protocol and the wireless NB-IoT protocol and at least one of a Wi-Fi protocol, a Bluetooth protocol or a near-field communications (NFC) protocol.

5. The smart-mesh socket of claim 1 wherein the multiple wireless communication protocols include the wireless broadband LTE protocol and the wireless NB-IoT protocol and a Wi-Fi protocol and a Bluetooth protocol and a near-field communications (NFC) protocol.

6. The smart-mesh socket of claim 1 wherein the software instructions stored by the one or more memory components are part of multiple software programs that include at least one operating system program from a group including Android operating system software, ARTOS operating system software, Linux operating system software, and Java virtual machine software, and that further include at least one application software program to provide at least some of the aggregated functionality.

7. The smart-mesh socket of claim 1 further comprising a lower case and a top case, wherein the lower case and the top case fully enclose the smart-mesh circuit when the lower case is engaged with the top case.

8. The smart-mesh socket of claim 7 wherein the top case has one or more visual attributes indicating one or more characteristics of the smart-mesh socket.

9. The smart-mesh socket of claim 1 wherein the plurality of smart-mesh sockets are located within a building, and wherein the participating by the smart-mesh socket in the providing of the aggregate functionality from the plurality of smart-mesh sockets includes at least some of the plurality of smart-mesh sockets being configured to at least one of monitor occupancy of the building or monitor environmental conditions of the building.

10. The smart-mesh socket of claim 1 wherein the plurality of smart-mesh sockets cover a defined area, and wherein the participating by the smart-mesh socket in the providing of the aggregate functionality from the plurality of smart-mesh sockets includes at least some of the plurality of smart-mesh sockets being configured to at least one of provide reservations for spaces within the defined area or provide one or more geo-fences for one or more spaces within the defined area or support administration of electrical devices within the defined area from one or more locations external to the defined area.

11. The smart-mesh socket of claim 1 wherein the participating by the smart-mesh socket in the providing of the aggregate functionality from the plurality of smart-mesh sockets includes the smart-mesh socket being further configured to perform automated operations including:

receiving, over the mesh network, and based at least in part on capabilities of the smart-mesh socket, first instructions to implement a specified type of operation;

performing the specified type of operation and providing information about results of the performing for use in an evaluation of the smart-mesh socket according to one or more specified criteria; and

receiving, over the mesh network, and after the smart-mesh socket is selected to implement additional operations of the specified type based at least in part on the evaluation, one or more second instructions to implement one or more of the additional operations of the specified type.

12. The smart-mesh socket of claim 11 wherein the automated operations further include, before the receiving of the first instructions, providing information to a server system about capabilities of the smart mesh socket for implementing the specified type of operation, and wherein the receiving of the first operations is from the server system as an result of a selection of the smart-mesh socket by the server system that is made based at least in part on the capabilities of the smart-mesh socket.

13. The smart-mesh socket of claim 11 wherein the performing of the specified type of operation includes performing, by the smart-mesh socket, one or more tasks associated with the specified type of operation, and wherein the providing of the information is performed at least in part over at least one network connection between a server system and a host smart-mesh socket of the plurality of smart-mesh sockets that is selected to act as a host device for a group including the plurality of smart-mesh sockets.

14. The smart-mesh socket of claim 13 wherein selecting of the host smart-mesh socket is performed by the plurality of smart-mesh sockets before the receiving of the first instructions and includes selecting one of the plurality other than the smart-mesh socket as the host smart-mesh socket, and wherein the automated operations further include:

determining, during the performing of the one or more tasks and after the at least one network connection becomes unavailable, for the smart-mesh socket to act as a new host device for the group; and

wherein the providing of the information to the server system is performed at least in part over at least one additional network connection created between the server system and the smart-mesh socket.

15. A system with a plurality of smart-mesh sockets, each smart-mesh socket within the plurality comprising:

a bottom cap connector having a Universal Serial Bus (USB) plug that is sized and shaped to be electrically coupled with a USB receptacle; and

a smart-mesh circuit that is electrically coupled to the bottom cap connector and that includes;

a main circuit with one or more processing units and one or more memory components; and

one or more wireless circuits that support multiple wireless communication protocols and that include one or more transceivers to send and receive communications with other smart mesh sockets of the plurality via a mesh network,

wherein the one or more memory components store software instructions that, when executed by at least one of the two or more processing units, cause the smart-mesh socket to participate in the mesh network with the plurality of smart-mesh sockets and to participate in providing functionality distributed across the plurality of smart-mesh sockets via interactions between the plurality of smart-mesh sockets, and wherein the providing of the functionality distributed across the plurality of smart-mesh sockets includes at least some of the plurality of smart-mesh sockets being configured to track a user device as the user device moves within separate areas covered by respective smart-mesh sockets of the mesh network.

16. The system of claim 15 wherein at least some of the plurality of smart mesh sockets each further includes a top socket, electrically coupled to the bottom cap connector of the smart mesh socket, that is sized and shaped to receive and provide power to an electrical device.

17. The system of claim 15 wherein at least some of the plurality of smart mesh sockets each further includes a top socket that is electrically coupled to the bottom cap connector of the smart mesh socket and that has at least one USB receptable sized and shaped to receive and connect with a USB plug of another device.

18. The system of claim 15 wherein the multiple wireless communication protocols include a wireless broadband long-term evolution (LTE) protocol, and wherein the communications sent and received with the other smart mesh sockets of the plurality via the mesh network are performed in at least in part using the wireless broadband LTE protocol.

19. The system of claim 18 wherein the multiple wireless communication protocols further include at least one of a Wi-Fi protocol or a Bluetooth protocol, and wherein the communications sent and received with the other smart mesh sockets of the plurality via the mesh network are performed in part using the at least one of the Wi-Fi protocol or the Bluetooth protocol.

20. The system of claim 15 wherein the multiple wireless communication protocols include a wireless narrow-band internet-of-things (NB-IoT) protocol, and wherein the communications sent and received with the other smart mesh sockets of the plurality via the mesh network are performed in at least in part using the wireless NB-IoT protocol.

21. The system of claim 20 wherein the multiple wireless communication protocols further include at least one of a Wi-Fi protocol or a Bluetooth protocol, and wherein the communications sent and received with the other smart mesh sockets of the plurality via the mesh network are performed in part using the at least one of the Wi-Fi protocol or the Bluetooth protocol.

22. The system of claim 15 wherein the multiple wireless communication protocols include a wireless broadband long-term evolution (LTE) protocol and a wireless narrow-band internet-of-things (NB-IoT) protocol, and wherein the communications sent and received with the other smart mesh sockets of the plurality via the mesh network are performed in at least in part using the wireless broadband LTE protocol and using the wireless NB-IoT protocol.

23. The system of claim 15 wherein the plurality of smart-mesh sockets are located within a building, and wherein the providing of the functionality distributed across the plurality of smart-mesh sockets includes at least some of the plurality of smart-mesh sockets being configured to at least one of monitor occupancy of the building or monitor environmental conditions of the building.

24. The system of claim 15 wherein the plurality of smart-mesh sockets cover a defined area, and wherein the providing of the functionality distributed across the plurality of smart-mesh sockets caused by the software instructions includes at least some of the plurality of smart-mesh sockets being configured to at least one of provide reservations for spaces within the defined area or provide one or more geo-fences for one or more spaces within the defined area or support administration of electrical devices within the defined area from one or more locations external to the defined area.

25. The system of claim 15 wherein the providing of the functionality distributed across the plurality of smart-mesh sockets includes one or more of the plurality of smart-mesh sockets being further configured to perform automated operations including:

receiving information about capabilities of at least some of the plurality of smart-mesh sockets to each implement a specified type of operation;

sending, over the mesh network, and based at least in part on the capabilities of the at least some smart-mesh sockets, first instructions to the at least some smart-mesh sockets to implement the specified type of operation;

evaluating performance of each of the at least some smart-mesh sockets in implementing the specified type of operation, including scoring the performance of each of the at least some smart-mesh sockets according to one or more specified criteria;

selecting one or more smart-mesh sockets of the at least some smart-mesh sockets to implement additional operations of the specified type, wherein the selecting is based at least in part on the evaluated performance of the one or more smart-mesh sockets; and

sending, based on the selecting, one or more second instructions to each of the one or more smart-mesh sockets to implement one or more of the additional operations of the specified type.

26. The system of claim 25 wherein the selecting of the one or more smart-mesh sockets is further based in part on at least one of information about scheduled maintenance for the one or more smart-mesh sockets or the one or more smart-mesh sockets being in a specified geographical location or workload information indicating current loads of the one or more smart-mesh sockets or past performance scores for the one or more smart-mesh sockets or a priority of a specified task to be performed or a time by which performing of a specified task is to be completed or a group of inter-related tasks to be performed in a specified order.

27. A system with a plurality of smart-mesh sockets, each smart-mesh socket within the plurality comprising:

a bottom cap connector having a Universal Serial Bus (USB) plug that is sized and shaped to be electrically coupled with a USB receptacle; and

a smart-mesh circuit that is electrically coupled to the bottom cap connector and that includes;

a main circuit with one or more processing units and one or more memory components; and

one or more wireless circuits that support multiple wireless communication protocols and that include one or more transceivers to send and receive communications with other smart mesh sockets of the plurality via a mesh network,

wherein the one or more memory components store software instructions that, when executed by at least one of the two or more processing units, cause the smart-mesh socket to participate in the mesh network with the plurality of smart-mesh sockets and to participate in providing functionality distributed across the plurality of smart-mesh sockets via interactions between the plurality of smart-mesh sockets, wherein at least some smart-mesh sockets are each associated with a mechanical system and has capabilities to receive and implement instructions to modify operations of the associated mechanical system via a specified type of operation that manipulates an environment around the associated mechanical systems, and wherein the interactions between the plurality of smart-mesh sockets includes sending first instructions to each of the at least some smart-mesh sockets to cause the smart-mesh socket to control the associated mechanical system to perform the specified type of operation.

28. The system of claim 27 wherein the multiple wireless communication protocols include two or more of a wireless broadband long-term evolution (LTE) protocol or a wireless narrow-band internet-of-things (NB-IoT) protocol or a Wi-Fi protocol or a Bluetooth protocol, and wherein the communications sent and received with the other smart mesh sockets of the plurality via the mesh network are performed in at least in part using the multiple wireless communication protocols.

29. A computer-implemented method comprising:

receiving, by at least some smart-mesh sockets from a plurality of smart-mesh sockets participating in a mesh network, instructions to implement one or more specified types of operations in a distributed manner by the at least some smart-mesh sockets; and

providing, by the at least some smart-mesh sockets based at least in part on interactions between the at least some smart-mesh sockets, and in response to the receiving of the instructions, functionality distributed across the at least some smart-mesh sockets to implement the one or more specified types of operations, wherein the providing of the functionality distributed across the at least some smart-mesh sockets includes the at least some smart-mesh sockets being configured to track location of a user device as the user device moves within separate areas covered by respective smart-mesh sockets of the mesh network,

and wherein each of the at least some smart-mesh sockets includes a bottom cap connector having a Universal Serial Bus (USB) plug that is sized and shaped to be electrically coupled with a USB receptacle, and further includes a smart-mesh circuit that is electrically coupled to the bottom cap connector and that has a main circuit with one or more processing units and one or more memory components and that supports multiple wireless communication protocols and that include one or more transceivers to send and receive communications with other smart mesh sockets of the plurality via the mesh network.

30. The computer-implemented method of claim 29 wherein the multiple wireless communication protocols include two or more of a wireless broadband long-term evolution (LTE) protocol or a wireless narrow-band internet-of-things (NB-IoT) protocol or a Wi-Fi protocol or a Bluetooth protocol, and wherein the communications sent and received with the other smart mesh sockets of the plurality via the mesh network are performed in at least in part using the multiple wireless communication protocols.