Power boost for power and data connectivity micro grids for information and communication technology infrastructure and related methods and devices
A power and data connectivity micro grid for Information and Communication Technologies (ICT) infrastructure includes power sourcing equipment device configured to deliver a first direct current (DC) power signal to a power port of the power sourcing equipment device, a power boost module having a power input port and a power output port, where the power boost module is configured to add a DC boost power signal to a second DC power signal received at the power boost module, a first splice enclosure, a second splice enclosure, and first, second and third composite power-data cables configured to transmit first, second, and third DC power signals. The third DC power signal from the power output port of the power boost module includes the DC boost power signal added to the second DC power signal that was received at the power input port of the power boost module.
1. A method of boosting power in a power and data connectivity micro grid for Information and Communication Technologies (ICT) infrastructure, the method comprising:
delivering a first direct current (DC) power signal to a power port of the power sourcing equipment device;
transmitting the first DC power signal from the power port of the power sourcing equipment device to a power input port of a first splice enclosure on a first composite power-data cable;
transmitting a second DC power signal from a power output port of the first splice enclosure to a power input port of a power boost module on a second composite power-data cable;
adding a DC boost power signal to the second DC power signal received at the power input port of the power boost module to generate a third DC power signal; and
transmitting the third DC power signal from a power output port of the power boost module to a power input port of a second splice enclosure on a third composite power-data cable,
wherein an exit DC voltage of the first DC power signal at the power input port of the first splice enclosure is less than an entry voltage of the first DC power signal at the power port of the power sourcing equipment device.
2. The method of boosting power of claim 1 ,
wherein the DC boost power signal added to the second DC power signal received at the power input port of the power boost module results in an entry voltage of the third DC power signal at the third composite power-data cable that is greater than the an exit DC voltage of the second DC power signal that was received at the power input port of the power boost module.
3. The method of boosting power of claim 1 ,
wherein the DC boost power signal is generated by a rechargeable battery unit.
4. The method of boosting power of claim 3 ,
wherein the rechargeable battery unit is charged during periods of low power usage by the power and data connectivity micro grid.
5. The method of boosting power of claim 1 , further comprising:
receiving an alternating current (AC) power signal; and
converting the AC power signal to the DC boost power signal.
6. A power and data connectivity micro grid for Information and Communication Technologies (ICT) infrastructure, comprising:
a power sourcing equipment device configured to deliver a first direct current (DC) power signal to a power port of the power sourcing equipment device;
a power boost module having a power input port and a power output port, wherein the power boost module is configured to add a DC boost power signal to a second DC power signal received at the power input port of the power boost module;
a first splice enclosure having a power input port, a power tap port, and a power output port;
a second splice enclosure having a power input port, a power tap port, and a power output port;
a first composite power-data cable configured to transmit the first DC power signal from the power port of the power sourcing equipment device to the power input port of the first splice enclosure;
a second composite power-data cable configured to transmit the second DC power signal from the power output port of the first splice enclosure to the power input port of the power boost module; and
a third composite power-data cable configured to transmit a third DC power signal from the power output port of the power boost module to the power input port of the second splice enclosure,
wherein the third DC power signal from the power output port of the power boost module comprises the DC boost power signal added to the second DC power signal that was received at the power input port of the power boost module, and
wherein an exit DC voltage of the first DC power signal from the first composite power-data cable at the power input port of the first splice enclosure is less than an entry voltage of the first DC power signal into the first composite power-data cable at the power port of the power sourcing equipment device.
7. The power and data connectivity micro grid of claim 6 ,
wherein the DC boost power signal added to the second DC power signal received at the power input port of the power boost module results in an entry voltage of the third DC power signal at the third composite power-data cable that is greater than the an exit DC voltage of the second DC power signal that was received at the power input port of the power boost module.
8. The power and data connectivity micro grid of claim 6 ,
wherein the power boost module comprises a rechargeable battery unit that is configured to generate the DC boost power signal.
9. The power and data connectivity micro grid of claim 8 ,
wherein the rechargeable battery unit is charged during periods of low power usage by the power and data connectivity micro grid.
10. The power and data connectivity micro grid of claim 6 ,
wherein the power boost module comprises an alternating current (AC) unit that is configured to convert AC power to the DC boost power signal.