Intelligent battery system
A mobile workstation includes a first battery bracket for releasable attachment of a main battery, a second battery bracket for releasable attachment of a backup battery and a power control circuit. The power control circuit includes a first input for receiving and monitoring power from the main battery, a second input for receiving and monitoring power from the backup battery, and a DC output. The power control circuit selectively routes a first flow of electricity from the main battery to the DC output when the first flow of electricity exceeds a predetermined value, and routes a second flow of electricity from the backup battery to the DC output when the first flow of electricity falls below the predetermined value.
1. A mobile workstation comprising:
a first battery bracket for releasable attachment of a main battery;
a second battery bracket for releasable attachment of a backup battery;
a power control circuit having a first input for receiving and monitoring power from said main battery, a second input for receiving and monitoring power from said backup battery, and a DC output, said power control circuit selectively routing a first flow of electricity from said main battery to said DC output when said first flow of electricity exceeds a predetermined value, and routing a second flow of electricity from said backup battery to said DC output when said first flow of electricity falls below said predetermined value; and
an inverter having a DC input connected to said DC output, an AC connector for providing AC power to electrical equipment associated with said workstation, and an AC/DC converter for converting power from said DC output to the AC electrical power provided at said AC connector.
2. The mobile workstation of claim 1 , wherein:
said power control circuit determines, in real time, a first capacity of said main battery and a second capacity of said backup battery.
3. The mobile workstation of claim 2 , wherein:
said power control circuit determines said first flow of electricity has fallen below said predetermined value when said main battery evidences a drop in said first capacity in excess of a predetermined parameter.
4. The mobile workstation of claim 1 , wherein:
said power control circuit routing said first flow of electricity from said main battery to said DC output, and halting the routing of said second flow of electricity from said backup battery to said DC output, when said power control circuit detects that said first flow of electricity has risen above said predetermined value.
5. The mobile workstation of claim 1 , further comprising:
a locking mechanism for preventing a simultaneous removal of said main battery and said backup battery.
6. The mobile workstation of claim 1 , wherein:
said power control circuit selectively combines a power output of said main battery and said backup battery such that said main battery and said backup battery power said workstation in tandem.
7. The mobile workstation of claim 1 , further comprising:
a voltage regulator circuit for detecting operating parameters of said workstation and for providing an optimal output voltage from said main battery and said backup battery in dependence thereon.
8. The mobile workstation of claim 7 , wherein:
said at least one parameter is percent capacity remaining.
9. The mobile workstation of claim 8 , wherein:
said at least one parameter is a remaining run time.
10. The mobile workstation of claim 1 , wherein:
said power control circuit prevents over discharge of said main battery and said backup battery by shutting down one of said batteries if a capacity of either of said battery drops below said predetermined value.