Plug-in power and data connectivity micro grids for information and communication technology infrastructure and related methods of deploying such micro grids
A power and data connectivity micro grid includes a first power sourcing equipment device having first and second power ports and first and second data ports, and configured to deliver DC power signals to the first and second power ports. The micro grid further includes first and second remote distribution nodes, and first and second splice enclosures, each splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port. A first composite power-data cable is coupled between the first power port and the first data port of the first power sourcing equipment device and the power input port and the data input port of the first splice enclosure. A second composite power-data cable is coupled between the second power port and the second data port of the first power sourcing equipment device and the power input port and the data input port of the second splice enclosure. The power tap port and the data tap port of the first splice enclosure are coupled to a power input port and a data input port of the first remote distribution node, respectively.
1. An intelligent remote distribution node for a power and data connectivity grid, comprising:
an input port;
a direct current (“DC”)-to-DC converter coupled to the input port;
a power bus coupled to the DC-to-DC converter;
one or more local ports coupled to the power bus; and
a data distribution module coupled between the input port and the one or more local ports,
wherein the intelligent remote distribution node is configured to receive power and data from a power-plus-fiber cable that includes one or more pairs of power conductors and one or more optical fibers.
2. The intelligent remote distribution node of claim 1 , further comprising an energy storage device.
3. The intelligent remote distribution node of claim 2 , wherein the intelligent remote distribution node is configured to pass excess power generated by the DC-to-DC converter to the energy storage device if the energy storage device is not fully charged and any powered devices that are connected to the one or more local ports are together drawing less than the full rated power of the DC-to-DC converter.
4. The intelligent remote distribution node of claim 3 , wherein the intelligent remote distribution node is further configured to pass power from the energy storage device to the power bus at least some of the time when the powered devices that are connected to the one or more local ports are drawing more than the full rated power of the DC-to-DC converter.
5. The intelligent remote distribution node of claim 1 , wherein the input port and the one or more local ports are each implemented as hybrid power-data ports.
6. The intelligent remote distribution node of claim 1 , wherein the DC-to-DC converter is configured to operate as a buck converter with respect to power signals received from the input port.
7. The intelligent remote distribution node of claim 1 , wherein the data distribution module includes a switching unit.
8. The intelligent remote distribution node of claim 7 , wherein the data distribution module further includes media conversion equipment.
9. The intelligent remote distribution node of claim 1 , wherein at least one of the one or more local ports comprises a power-over-Ethernet port.
10. The intelligent remote distribution node of claim 1 , further comprising a pass-through power and data bus and an output port, where the pass-through power and data bus is coupled between the input port and the output port.
11. An intelligent remote distribution node for a power and data connectivity grid, comprising:
an input port;
a direct current (“DC”)-to-DC buck converter coupled to the input port;
a power bus coupled to the DC-to-DC converter;
one or more local ports coupled to the power bus; and
an energy storage device coupled to the power bus;
wherein the intelligent remote distribution node is configured to pass excess power generated by the DC-to-DC converter to the energy storage device if the energy storage device is not fully charged and any powered devices that are connected to the one or more local ports are together drawing less than the full rated power of the DC-to-DC converter.
12. The intelligent remote distribution node of claim 11 , wherein the intelligent remote distribution node is further configured to pass power from the energy storage device to the power bus at least some of the time when the powered devices that are connected to the one or more local ports are drawing more than the full rated power of the DC-to-DC converter.
13. The intelligent remote distribution node of claim 12 , further comprising a pass-through power and data bus and an output port, where the pass-through power and data bus is coupled between the input port and the output port.
14. The intelligent remote distribution node of claim 11 in combination with:
a first splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port; and
a first small cell base station coupled to the power tap port and the data tap port of the first splice enclosure,
wherein the intelligent remote distribution node is coupled between the first splice enclosure and the first small cell base station.
15. An intelligent remote distribution node for a power and data connectivity grid, comprising:
an input port;
a direct current (“DC”)-to-DC converter coupled to the input port;
a power bus coupled to the DC-to-DC converter;
one or more local ports coupled to the power bus; and
a data distribution module coupled between the input port and the one or more local ports,
wherein the intelligent remote distribution node is in combination with:
a first splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port; and
a first small cell base station coupled to the power tap port and the data tap port of the first splice enclosure,
wherein the intelligent remote distribution node is coupled between the first splice enclosure and the first small cell base station.