Mobile battery powered medical cart

1. A mobile battery powered medical cart, comprising:

a wheeled base portion having a battery power bay for service and battery replacement therein;

an upper workstation area having a monitor and a glass overlay display, wherein the glass overlay display is positioned on a top surface of the upper workstation area and has anti-bacterial and chemical resistant properties and comprises haptic feedback controls;

at least one adjustable height column operably coupling the wheeled base portion and the upper workstation area and electronically coupling the battery in the wheeled base portion with the monitor and haptic feedback controls in the upper workstation area; and

wherein the haptic feedback controls vibrate to signal a user when the cart needs a battery replacement.

2. The mobile battery powered medical cart of claim 1 , wherein the haptic feedback controls are used to control passcode input, adjustment of the adjustable height column, workspace illumination controls, and display of remaining battery runtime via a custom runtime algorithm.

3. The mobile battery powered medical cart of claim 1 , wherein remaining battery runtime is calculated by taking remaining battery capacity (in Watt/hour) and dividing it by the set power consumption rate (Pset), wherein Pset is the average power consumption of all electronic devices and accessories connected to the battery powered mobile medical cart, and wherein Pset is determined during production or manufacture of the battery powered mobile medical cart.

4. The mobile battery powered medical cart of claim 1 , further comprising a voice activated smart hub or artificial intelligence hub.

5. The mobile battery powered medical cart of claim 1 , further comprising a technology bay in the upper workstation area to house a computer, an RFID reader, Wi-Fi, BLE, and/or GPS systems.

6. The mobile battery powered medical cart of claim 1 , further comprising an RFID device that is integrated with the glass overlay display.

7. The mobile battery powered medical cart of claim 1 , wherein the monitor further comprises a laptop computer or tablet.

8. The mobile battery powered medical cart of claim 1 , further comprising a computer.

9. The mobile battery powered medical cart of claim 1 , wherein the at least one adjustable height column comprises two adjustable height columns spaced apart to provide additional space therebetween.

10. A mobile battery powered medical cart, comprising:

a wheeled base portion having a battery power bay for receiving at least one swappable battery therein;

an upper workstation area having electronic components operably coupled to, and powered by, the at least one swappable battery in the power bay;

a glass overlay display positioned on a top surface of the upper workstation area and having anti-bacterial and chemical resistant properties, and providing a display for remaining battery runtime calculated via a custom runtime algorithm;

a spare battery stored on the adjustable height column, wherein the spare battery is connected to the electronic components when placed in the battery power bay; and

a technology bay to house integrated RFID, Wi-Fi, BLE, and/or GPS systems.

11. The mobile battery powered medical cart of claim 10 , wherein the battery power bay comprises modular compartments for receiving multiple batteries therein, wherein more than one battery may be used to adjust runtime of the cart.

12. The mobile battery powered medical cart of claim 11 , further comprising battery separating tabs disposed between the battery compartments of the battery power bay to reduce heat and/or improve individual battery performance.

13. The mobile battery powered medical cart of claim 10 , wherein the glass overlay display further comprises haptic feedback controls for passcode input, adjustment of at least one adjustable height column, workspace illumination controls, and display of remaining battery life via custom runtime algorithm.

14. The mobile battery powered medical cart of claim 10 , wherein remaining battery runtime is calculated using an algorithm, taking remaining battery capacity (in Watt/hour) and dividing it by the set power consumption rate (Pset), wherein Pset is the average power consumption of all electronic devices and accessories connected to the mobile battery powered medical cart, and wherein Pset is determined during production or manufacture of the mobile battery powered medical cart.

15. The mobile battery powered medical cart of claim 10 , further comprising a monitor.

16. The mobile battery powered medical cart of claim 10 , further comprising a computer.

17. The mobile battery powered medical cart of claim 16 , wherein the computer is positioned below the upper workstation area.

18. A method of calculating remaining battery runtime in a mobile battery powered medical cart, comprising:

determining a set power consumption rate (Pset), wherein Pset is the average power consumption of all electronic devices and accessories connected to the battery powered medical cart, and wherein Pset is determined during production or manufacture of the battery powered mobile medical cart; and

applying a custom runtime algorithm, wherein remaining battery runtime is calculated by taking remaining battery capacity (in Watt/hour) and dividing it by the set power consumption rate (Pset);

vibrating a haptic feedback control on the mobile battery powered medical cart to signal the remaining runtime is low and a battery replacement is needed.

19. The method of claim 18 , further comprising displaying the remaining battery runtime on an illuminated glass overlay positioned on a top surface of the upper workstation area of the mobile battery powered medical cart.

20. The method of claim 18 , wherein the remaining battery runtime is communicated to a user via haptic feedback.