Automatic circuit allocation of remote devices in a multi-power supply system
A power transmission system is disclosed comprising a centralized power supply system having multiple DC power supply units and a controller coupled to the DC power supplies. Remote devices are coupled to the centralized power system via a power cable. In some embodiments, the DC power supply units transmit signal information to respective ones of the remote devices, and the remote devices may be configured to forward the signal information to the controller. In some embodiments, the controller module automatically allocates individual ones of the DC power supply units to the respective ones of the remote devices based on the forwarded signal information.
1 . A centralized power supply system comprising a controller coupled to a first set of DC power supply units, wherein:
(a) each DC power supply unit of the first set of DC power supply units is configured to be capable of:
(i) being electrically connected to a respective power cable of a first set of a plurality of power cables;
(ii) transmitting a power signal to a respective remote device of a first set of a plurality of remote devices via the respective power cable; and
(b) the controller is configured to perform the steps of:
(i) sending one or more voltage instructions to one or more DC power supply units of the first set of DC power supply units to set a respective predetermined voltage for each of the one or more DC power supply units;
(ii) sending a first power modification instruction to a first DC power supply unit of the first set of DC power supply units to modify an output voltage of the first DC power supply unit over a first power cable of the first set of the plurality of power cables,
(iii) receiving a plurality of input voltage values associated with each of the first set of the plurality of remote devices including a first input voltage value associated with a first remote device of the first set of the plurality of remote devices;
(iv) comparing the respective input voltage value of each remote device of the first set of the plurality of remote devices and determining that the first input voltage value differs by more than a predetermined value from the input voltage value of each other remote device of the first set of the plurality of remote devices; and
(v) automatically assigning a correspondence between the first DC power supply unit and the first remote device.
2 . The centralized power supply system of claim 1 , wherein each remote device of the first set of the plurality of remote devices is selected from the group comprising: a sensor, a motor, an internet-of-things device, a radio, a remote radio head, and a remote particle detector.
3 . The centralized power supply system of claim 1 , wherein at least one remote device of the first set of the plurality of remote devices comprises a remote radio head.
4 . The centralized power supply system of claim 1 , wherein each DC power supply unit of the first set of DC power supply units comprises a DC-DC converter.
5 . The centralized power supply system of claim 1 , wherein each DC power supply unit of the first set of DC power supply units comprises an AC-DC converter.
6 . The centralized power supply system of claim 1 , wherein at least one of the DC power supply units of the first set of DC power supply units is configured to receive power from a battery bank.
7 . The centralized power supply system of claim 1 , wherein the controller is configured to iterate steps (b)(ii)-(b)(v) for each of the DC powers supply units of the first set of DC power supply units so as to generate a mapping between each DC power supply unit of the first set of DC power supply units and a corresponding remote device of the first set of the plurality of remote devices.
8 . The centralized power supply system of claim 1 , wherein the plurality of input voltage values is received from a first set of voltage monitoring (VM) devices.
9 . The centralized power supply system of claim 1 , wherein the plurality of input voltage values is received from a collector.
10 . The centralized power supply system of claim 1 , wherein the controller is configured to monitor power information, wherein the power information includes one or more of an input voltage, current measurements of an input voltage source, a voltage measurement at an input to the remote device of a first set of a plurality of remote devices from a voltage measurement device, a power cable resistance, a target voltage, or a combination thereof.
11 . The centralized power supply system of claim 1 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by applying noise to the output voltage.
12 . The centralized power supply system of claim 1 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by switching on and off the first DC power supply unit.
13 . The centralized power supply system of claim 1 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by injecting a high frequency signal in the output voltage.
14 . The centralized power supply system of claim 1 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by applying a voltage pulse to the output voltage.
15 . The centralized power supply system of claim 1 , wherein the first power modification instruction is to modify the output of the first DC power supply unit by increasing the output voltage.
16 . A centralized power supply system comprising a controller coupled to a first set of DC power supply units, wherein:
(a) each DC power supply unit of the first set of DC power supply units is electrically connected to a respective remote device of a first set of remote devices; and
(b) the controller is configured to perform the steps of:
(i) sending one or more voltage instructions to one or more DC power supply units of the first set of DC power supply units to set a respective predetermined voltage for each of the one or more DC power supply units;
(ii) sending a first power modification instruction to a first DC power supply unit to modify an output voltage of the first DC power supply unit;
(iii) receiving a plurality of input voltage values associated with each of the first set of remote devices including a first input voltage value associated with a first remote device of the first set of remote devices;
(iv) comparing the respective input voltage value of each remote device of the first set of remote devices and determining that the first input voltage value differs by more than a predetermined value from the input voltage value of each other remote device of the first set of remote devices; and
(v) automatically assigning a correspondence between the first DC power supply unit and the first remote device.
17 . The centralized power supply system of claim 16 , wherein each remote device of the first set of remote devices is selected from the group comprising: a sensor, a motor, an internet-of-things device, a radio, a remote radio head, and a remote particle detector.
18 . The centralized power supply system of claim 16 , wherein at least one remote device of the first set of remote devices comprises a remote radio head.
19 . The centralized power supply system of claim 16 , wherein each DC power supply unit of the first set of DC power supply units comprises a DC-DC converter.
20 . The centralized power supply system of claim 16 , wherein each DC power supply unit of the first set of DC power supply units comprises an AC-DC converter.
21 . The centralized power supply system of claim 16 , wherein at least one of the DC power supply units of the first set of DC power supply units is configured to receive power from a battery bank.
22 . The centralized power supply system of claim 16 , wherein the controller is configured to iterate steps (b)(ii)-(b)(v) for each of the DC powers supply units of the first set of DC power supply units so as to generate a mapping between each DC power supply unit of the first set of DC power supply units and a corresponding remote device of the first set of remote devices.
23 . The centralized power supply system of claim 16 , wherein the plurality of input voltage values is received from a first set of voltage monitoring (VM) devices.
24 . The centralized power supply system of claim 16 , wherein the plurality of input voltage values is received from a collector.
25 . The centralized power supply system of claim 16 , wherein the controller is configured to monitor power information, wherein the power information includes one or more of an input voltage, current measurements of an input voltage source, a voltage measurement at an input to the remote device of a first set of a plurality of remote devices from a voltage measurement device, a power cable resistance, a target voltage, or a combination thereof.
26 . The centralized power supply system of claim 16 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by applying noise to the output voltage.
27 . The centralized power supply system of claim 16 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by switching on and off the first DC power supply unit.
28 . The centralized power supply system of claim 16 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by injecting a high frequency signal in the output voltage.
29 . The centralized power supply system of claim 1 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by applying a voltage pulse to the output voltage.
30 . The centralized power supply system of claim 1 , wherein the first power modification instruction is to modify the output voltage of the first DC power supply unit by increasing the output voltage.