Abstract: A method of controlling a power system includes receiving a signal indicative of user interaction with a handle of a removable battery, and switching a power interface of the power system from a first power sourcing mode receiving power from the removable battery to a second power sourcing mode receiving power from a back-up battery. An electronic control unit for the power system includes a memory storing computer executable instructions for controlling power sourcing in the power control system, a detector interface configured to receive a signal indicative of user interaction with a removable battery of the mobile workstation and a microprocessor configured by way of executing the computer executable instructions to switch a power interface of the power control system from a first power sourcing mode to a second power sourcing mode.

Abstract: A method of retrofitting a power system to a mobile work station includes coupling a replacement power system with the mobile work station in place of an existing power system, establishing a power link between a power interface and a docking station for a removable battery, and establishing a communication link between a power control system and a detector configured to detect user interaction with a removable battery docked with the docking station.

Abstract: A system for use in gathering and/or processing data in healthcare facilities includes a fleet of mobile workstations, a set of interchangeable batteries for the fleet of mobile workstations and a battery recharging system for the set of interchangeable batteries. The battery recharging system includes a common battery charger and a control device configured to reduce variation in charging cycle count among the batteries at least in part by outputting a battery selection signal in response to comparing charging cycle counts for each of the batteries.

Abstract: A mobile workstation includes a control system having computer readable memory storing a power sourcing algorithm and a data processing algorithm, a power interface having a first input interface and a second input interface, and an output interface configured to supply power from either of the input interfaces to a plurality of computerized devices resident on the mobile workstation. A microprocessor is configured to execute the power sourcing algorithm to switch the power interface from a first power sourcing mode to a second power sourcing mode and further configured to execute the data processing algorithm to control a peripheral device of the mobile workstation in response to inputs received via a data interface. The control system is part of a power system resident on the mobile workstation and operable independently of a plurality of computerized devices also resident on the mobile workstation.

Abstract: A battery charging system includes a housing having a plurality of docking stations coupled therewith. A control device is coupled with a battery charging interface of each of the plurality of docking stations, and is configured to reduce variation in charging cycle count among a plurality of batteries configured to dock with the battery charging interfaces. A method of reducing variation in charging cycle count in a system of batteries includes receiving inputs associated with a charging cycle count for each of a plurality of interchangeable batteries docked with a common battery charger, and outputting a battery selection signal based at least in part on the inputs.

Abstract: A power supply unit for a mobile computerized device includes a housing having a handle, a battery positioned within the housing, and a detector configured to detect user interaction with the handle. The power supply unit may comprise a removable power supply unit for a mobile computerized device, having a detector generating a signal in response to detecting user interaction with the handle.

Abstract: A power system for a mobile workstation includes a docking station for a removable battery, a power bus, and a power interface having an output interface electrically connected with the power bus. The power system further includes a detector configured to detect user interaction with a removable battery docked with the docking station, and a switching device coupled with the detector and configured to switch the power interface from a first power sourcing mode to a second power sourcing mode receiving power from a back-up battery, in response to detecting user interaction with a removable battery docked with the docking station.

Abstract: A mobile workstation includes a frame having a wheeled base, a power system resident on the mobile workstation and a battery docking station having a holster which defines a guide. The mobile workstation further includes a removable battery assembly configured to dock with the battery docking station via engagement in the guide, and having a housing with a shape complementary to a shape of the guide and an external contour configured to mate with an internal contour of the guide.

Abstract: A method of controlling a power system includes receiving a signal indicative of user interaction with a handle of a removable battery, and switching a power interface of the power system from a first power sourcing mode receiving power from the removable battery to a second power sourcing mode receiving power from a back-up battery. An electronic control unit for the power system includes a memory storing computer executable instructions for controlling power sourcing in the power control system, a detector interface configured to receive a signal indicative of user interaction with a removable battery of the mobile workstation and a microprocessor configured by way of executing the computer executable instructions to switch a power interface of the power control system from a first power sourcing mode to a second power sourcing mode.

Abstract: A control system for a mobile workstation includes a computer readable memory storing a power sourcing algorithm and a data processing algorithm. The control system further includes a power interface having a first input interface and a second input interface, and an output interface configured to supply power from either of the input interfaces to a plurality of computerized devices resident on the mobile workstation. A microprocessor is configured to execute the power sourcing algorithm to switch the power interface from a first power sourcing mode receiving power via the first input interface to a second power sourcing mode receiving power via the second input interface. The microprocessor is further configured to execute the data processing algorithm to control a peripheral device of the mobile workstation in response to inputs received via a data interface.

Abstract: A mobile workstation includes a frame having a wheeled base, a power system resident on the mobile workstation and a battery docking station having a holster which defines a guide. The mobile workstation further includes a removable battery assembly configured to dock with the battery docking station via engagement in the guide, and having a housing with a shape complementary to a shape of the guide and an external contour configured to mate with an internal contour of the guide.

Abstract: A power system for a mobile workstation includes a docking station for a removable battery, a power bus, and a power interface having an output interface electrically connected with the power bus. The power system further includes a detector configured to detect user interaction with a removable battery docked with the docking station, and a switching device coupled with the detector and configured to switch the power interface from a first power sourcing mode to a second power sourcing mode receiving power from a back-up battery, in response to detecting user interaction with a removable battery docked with the docking station.

Abstract: A method of retrofitting a power system to a mobile work station includes coupling a replacement power system with the mobile work station in place of an existing power system, establishing a power link between a power interface and a docking station for a removable battery, and establishing a communication link between a power control system and a detector configured to detect user interaction with a removable battery docked with the docking station.

Abstract: A power supply unit for a mobile computerized device includes a housing having a handle, a battery positioned within the housing, and a detector configured to detect user interaction with the handle. The power supply unit may comprise a removable power supply unit for a mobile computerized device, having a detector generating a signal in response to detecting user interaction with the handle.

Abstract: A battery charging system includes a housing having a plurality of docking stations coupled therewith. A control device is coupled with a battery charging interface of each of the plurality of docking stations, and is configured to reduce variation in charging cycle count among a plurality of batteries configured to dock with the battery charging interfaces. A method of reducing variation in charging cycle count in a system of batteries includes receiving inputs associated with a charging cycle count for each of a plurality of interchangeable batteries docked with a common battery charger, and outputting a battery selection signal based at least in part on the inputs.

Abstract: A system for use in gathering and/or processing data in healthcare facilities includes a fleet of mobile workstations, a set of interchangeable batteries for the fleet of mobile workstations and a battery recharging system for the set of interchangeable batteries. The battery recharging system includes a common battery charger and a control device configured to reduce variation in charging cycle count among the batteries at least in part by outputting a battery selection signal in response to comparing charging cycle counts for each of the batteries.

Abstract: Mobile computer workstations must be sufficiently large in order to be stable, but small enough to be easily maneuverable through a work place. A vertically-adjustable mobile computer workstation of the present disclosure includes a pole rotatably attached to a base supported by a plurality of rotatable members. The pole includes a first arm rotatably attached to a second arm. A computer support is attached to the second arm and is moveable between a sitting user position and a standing user position, at least in part, by pivoting the arms of the pole with respect to one another and the moveable base.

Abstract: A vertically adjustable mobile computer workstation includes a first arm which has an upper end and a lower end. Attached to the upper end of the first arm is at least one platform. A second arm includes an upper end and a lower end. The lower end of the first arm and the upper end of the second arm are hingedly attached. The lower end of the second arm is attached to a base that is supported by a plurality of rotatable members. The first arm is rotatable between a first angular position in which the at least one platform is positioned above the rotatable members and a second angular position in which the at least one platform is positioned higher above the rotatable members.