Distributed serial control system

• US 5,841,360 A
• Filed: 10/22/1996
• Issued: 11/24/1998
• Est. Priority Date: 10/21/1996
• Status: Expired due to Term

• Current Assignee: Conversant Intellectual Property Management Inc (MOSAID Technologies Inc. (f/k/a Conversant Intellectual Property Management))
• Original Assignee: Yehuda Binder
• Inventors: Binder, Yehuda
• Primary Examiner(s): Horabik, Michael
• Assistant Examiner(s): Dalencourt, Yves
• Application Number:
  US08/734,921
• Time in Patent Office: 763 Days
• Field of Search: 340/310.01, 340/825.07, 340/825.06, 370/527, 370/529, 370/475, 370/408, 370/501, 370/502, 370/419
• US Class Current: 340/9.1
• CPC Class Codes: H04L 12/2803 Home automation networks
• CPC Class Codes: H04L 12/282 based on user interaction within the home receiver circuitry for displaying additional information being controlled by a remote control apparatus H04N21/42204
• CPC Class Codes: H04L 12/2823 Reporting information sensed by appliance or service execution status of appliance services in a home automation network device-related reporting H04L43/065; 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: H04L 12/2838 Distribution of signals within a home automation network, e.g. involving splitting/multiplexing signals to/from different paths adaptations of television systems for transmission by electric cable for domestic distribution H04N7/106; hybrid transport H04L12/6418; home network arrangements specially adapted for distribution of digital video signals H04N7/24
• CPC Class Codes: H04L 2012/2841 Wireless
• CPC Class Codes: H04L 2012/2843 Mains power line
• CPC Class Codes: H04L 61/5038 for local use, e.g. in LAN or USB networks, or in a controller area network [CAN]

Abstract

A network topology allowing distributed sensing, control and communication, comprising a power source and a plurality of line-Powered, Serially connected Intelligent Cells (PSICs) coupled to the power source and to each other via respective communication channels comprising at least two electrical conductors. Each of the PSICs is uniquely addressed, preferably "on the fly" in real time, and at least one payload element is coupled to one of the PSICs for operating in accordance with control logic embedded in or fed to the corresponding PSIC. The communication channels allow for data transfer between adjacent PSICs in either or both directions independent of a simultaneous communication between another pair of adjacent PSICs.

Claims

1. A network topology allowing distributed sensing, control and communication, comprising:

a power source,

a plurality of line-Powered, Serially connected Intelligent Cells (PSICs) coupled to the power source and to each other via respective communication channels each allowing mutually independent communication in either or both directions and comprising at least two electrical conductors,

addressing means for uniquely referencing each of said PSICs, and

at least one payload element coupled to one of the PSICs for operating in accordance with control logic embedded in or fed to said one of the PSICs.

2. The network topology according to claim 1, wherein the at least one payload element is a sensor for providing a sensor signal to which the control logic is responsive for routing control data to at least one other PSIC in the network.

3. The network topology according to claim 1, wherein the at least one payload element includes an actuator coupled to one of the PSICs for operating responsive to control data fed thereto.

4. The network topology according to claim 1, wherein the control logic is at least partially contained in a discrete management unit connected to one of the PSICs.

5. The network topology according to claim 1, wherein the control logic is wholly contained within the PSICs.

6. The network topology according to claim 1, wherein the addressing means are at least partially encoded within the PSICs.

7. The network topology according to claim 6, wherein the addressing means includes manually settable switches in the PSIC for setting a unique address code.

8. The network topology according to claim 1, wherein the addressing means is dictated by the network topology.

9. The network topology according to claim 1, wherein the addressing means is partially dictated by the network topology.

10. The network topology according to claim 8, wherein the PSIC which is nearest to the power source and which receives power directly therefrom is allocated a first address and successive PSICs are allocated successive addresses according to the order in which they are connected relative to the power source.

11. The network topology according to claim 1, wherein power and data are fed together on a common channel and at least one of the PSICs includes:

a first port for coupling to the power source for receiving an incoming power signal,

processing means for generating a control signal in accordance with a predetermined logic,

at least one second port each for coupling to a respective successive PSIC, and

a respective data coupling/decoupling means coupled to each of the second ports and to the processing means for receiving an incoming data signal as well as an outgoing power signal derived from the incoming power signal and for superimposing the data signal on the outgoing power signal so as to generate an outgoing power and data signal and for feeding said outgoing power and data signal to the respective second port, and for receiving from the respective second port said incoming data signal and for de-coupling the incoming data signal from the outgoing power signal.

12. The PSIC according to claim 11, further including:

at least one payload port each for coupling to a respective actuator or sensor and being coupled to the processing means for receiving the control signal and feeding the control signal to the respective actuator or for receiving a sensor signal from the respective sensor.

13. The PSIC according to claim 11, further including a communication port coupled to the processing means for coupling to an external logic control element so as to feed said predetermined logic to the processing means.

14. The PSIC according to claim 11, further including a communication port coupled to the processing means for coupling to an external logic control element for monitoring a status of the processing means and a payload element coupled thereto.

15. The PSIC according to claim 11, further including a communication port coupled to the processing means for coupling to an external logic control element so as to feed said predetermined logic to the processing means and for monitoring a status of the processing means and a payload element coupled thereto.

16. The network topology according to claim 1, wherein power and data are fed together on a common channel and at least one of the PSICs includes:

a first port for coupling to a preceding PSIC for receiving a first incoming power and data signal and for transmitting a second outgoing data signal,

first data coupling/decoupling means coupled to the first port for de-coupling from the first incoming power and data signal a first incoming data signal and an incoming power signal and for superimposing a second outgoing data signal on the incoming power signal so as to produce a second outgoing power and data signal,

at least one second port each for coupling to a respective successive PSIC,

a respective second data coupling/decoupling means coupled to each of the second ports for receiving a first outgoing data signal as well as an outgoing power signal derived from the incoming power signal and for superimposing the first outgoing data signal on the outgoing power signal so as to generate a first outgoing power and data signal and for feeding said first outgoing power and data signal to the respective second port, and for receiving from the respective second port a second incoming data signal and for de-coupling the second incoming data signal from the outgoing power signal, and

processing means coupled to the first and second data coupling/de-coupling means for receiving the first and second incoming data signals and for generating a control signal in accordance with a predetermined logic.

17. The PSIC according to claim 16, further including:

at least one payload port each for coupling to a respective actuator or sensor and being coupled to the processing means for receiving the control signal and feeding the control signal to the respective actuator or for receiving a sensor signal from the respective sensor.

18. The PSIC according to claim 16, further including a communication port coupled to the processing means for coupling to an external logic control element so as to feed said predetermined logic to the processing means.

19. The PSIC according to claim 16, further including a communication port coupled to the processing means for coupling to an external logic control element for monitoring a status of the processing means and a payload element coupled thereto.

20. The PSIC according to claim 16, further including a communication port coupled to the processing means for coupling to an external logic control element so as to feed said predetermined logic to the processing means and for monitoring a status of the processing means and a payload element coupled thereto.

21. The network topology according to claim 1, wherein power and data are fed to the PSICs on different channels and at least one of the PSICs includes:

a first port for coupling to a preceding PSIC for receiving therefrom a first incoming data signal and for transmitting thereto a second outgoing data signal,

processing means coupled to the first port for receiving said first incoming data signal and for generating a control signal in accordance with a predetermined logic,

at least one payload port each for coupling to a respective actuator or sensor and being coupled to the processing means for receiving the control signal and feeding the control signal to the respective actuator or for receiving a sensor signal from the respective sensor,

at least one second port each for coupling to a respective successive PSIC, and

a fourth port for coupling to a power source for supplying power to the processing means and to each of the sensors and/or actuators.

22. The PSIC according to claim 21, further including a communication port coupled to the processing means for coupling to an external logic control element so as to feed said predetermined logic to the processing means.

23. The PSIC according to claim 21, further including a communication port coupled to the processing means for coupling to an external logic control element for monitoring a status of the processing means and a payload element coupled thereto.

24. The PSIC according to claim 21, further including a communication port coupled to the processing means for coupling to an external logic control element so as to feed said predetermined logic to the processing means and for monitoring a status of the processing means and a payload