Abstract: A computer-implemented method for managing medical equipment includes presenting, at a display of a mobile computing device associated with an inspector, an inspection user interface configured to capture one or more user inputs from the inspector, receiving inspection account information via the one or more user inputs, receiving a location of the mobile computing device, providing, at the inspection user interface, identification information for transported medical equipment that is associated with the inspection account information, receiving status information for the transported medical equipment via the one or more user inputs, receiving, at a remote medical equipment database, location information for the transported medical equipment, and updating a maintenance report for the transported medical equipment by storing an inspection information entry in the maintenance report.

Abstract: A modular headwall system with multiple interlocking sections. The studs in each frame section include hooks and slots that ensure secure attachment of one section to each adjacent section while maintaining proper alignment. For floor-mounted applications, a self-leveling base assembly provides a level support track even on uneven floors. An adjustable crown molding assembly provides an attractive architectural feature while concealing an irregular ceiling line. The cover panels forming the front of the headwall float on a hanger system that allows slight lateral and vertical movement while holding the entire matrix of panels firmly against the frame behind it; this allows the panels to maintain proper alignment in the assembled headwall even where the supporting wall and floor surfaces are irregular. The side trim assembly includes a cable management recess. Some panels include a floating equipment track that is aesthetically pleasing and less likely to harbor microorganisms.

Abstract: A modular in-wall medical services unit for medical care facilities. A frame supports a cabinet with a cover panel providing electrical and/or gas outlets. Built-in electrical and gas conduits are included. A junction box and ends of the gas conduits near the top of the frame are accessible after wallboard is applied. Thus, wallboard can be installed before or after wiring is completed and gas connections are made. The self-aligning cover panel is “floatingly” supported on the frame so that a bead of sealant can be applied around the edge before the cover panel is “snugged up” to the wall and secured. The trim flanges on the cover panel include vertical equipment mounting tracks. Manufacturing is simplified by making the height of the frame adjustable; the same frame elements can be used to assemble units for different ceiling heights, decreasing the number of required parts in inventory and expediting assembly.

Abstract: A medical equipment transport system for supporting medical equipment while a patient is transported. The system comprises an equipment rack, such as an IV stand. While in the hospital room, the rack is mounted on a bracket supported on a mobile tower. When the patient is moved, the rack is transferred to a similar bracket on the bed. Transfer of the rack between bed and tower brackets is accomplished using a lift mechanism in the tower. The lift mechanism includes a bogie stabilized by radially-arranged bearings, enabling the tower to accept omni directional loading and moment forces. The rack is supported on each of the brackets by two vertically-aligned conical pins nested in tapered bushings, providing additional stability. A self-locking, self-releasing latch assembly prevents inadvertent dislocation of the rack. A customized adapter enables attachment of the bracket to any model bed without structurally altering it, simplifying installation and preserving warranties.

Abstract: A modular in-wall medical services unit for medical care facilities. A frame supports a cabinet with a cover panel providing electrical and/or gas outlets. Built-in electrical and gas conduits are included. A junction box and ends of the gas conduits near the top of the frame are accessible after wallboard is applied. Thus, wallboard can be installed before or after wiring is completed and gas connections are made. The self-aligning cover panel is “floatingly” supported on the frame so that a bead of sealant can be applied around the edge before the cover panel is “snugged up” to the wall and secured. The trim flanges on the cover panel include vertical equipment mounting tracks. Manufacturing is simplified by making the height of the frame adjustable; the same frame elements can be used to assemble units for different ceiling heights, decreasing the number of required parts in inventory and expediting assembly.

Abstract: A modular in-wall medical services unit for medical care facilities. A housing is supported inside the wall. The housing is divided longitudinally into front and rear chambers. The service outlet cabinet and gas conduits are mounted in the front chamber. The rear chamber is divided into multiple raceways for the electrical wires. The top of the housing is above the ceiling, and a junction box is mounted on the front of the housing near the top so that it extends beyond the wallboard and above the ceiling. This allows the wallboard to be installed around the cabinet and the junction box before or after gas and electrical connections are completed. Because there are no external wiring conduits, the unit is easier to ship. Additionally, the narrow footprint allows the unit to be placed adjacent another structure in the wall or in a corner, increasing the placement choices in the room.

Abstract: A modular in-wall medical services outlet system comprising separate standardized vertical units that can be shipped separately and assembled on site to form a consolidated horizontal system. The system includes a self-aligning feature that allows the units to be leveled as a single whole and eliminates the need to level each unit separately. The alignment system may be combined with connectors which secure the units to each other. Racks of medical service outlets are included. The racks may be horizontally aligned, vertically aligned, or both. Substantially continuous trim and cover plate assemblies extend entirely across the face of the system around the outlets giving the system the appearance of an in-wall horizontal unit. The trim is attachable to the wall structure, receives the wall board, supports the service outlets, and provides horizontal equipment tracks. The frame provides the system with load bearing capacity to support equipment in the horizontal tracks.

Abstract: A modular in-wall medical services outlet system comprising separate standardized vertical units that can be shipped separately and assembled on site to form a consolidated horizontal system. The system includes a self-aligning feature that allows the units to be leveled as a single whole and eliminates the need to level each unit separately. The alignment system may be combined with connectors which secure the units to each other. Racks of medical service outlets are included. The racks may be horizontally aligned, vertically aligned, or both. Substantially continuous trim and cover plate assemblies extend entirely across the face of the system around the outlets giving the system the appearance of an in-wall horizontal unit. The trim is attachable to the wall structure, receives the wall board, supports the service outlets, and provides horizontal equipment tracks. The frame provides the system with load bearing capacity to support equipment in the horizontal tracks.

Abstract: A modular in-wall medical services outlet system comprising separate standardized vertical units that can be shipped separately and assembled on site to form a consolidated horizontal system. The system includes a self-aligning feature that allows the units to be leveled as a single whole and eliminates the need to level each unit separately. The alignment system may be combined with connectors which secure the units to each other. Racks of medical service outlets are included. The racks may be horizontally aligned, vertically aligned, or both. Substantially continuous trim and cover plate assemblies extend entirely across the face of the system around the outlets giving the system the appearance of an in-wall horizontal unit. The trim is attachable to the wall structure, receives the wall board, supports the service outlets, and provides horizontal equipment tracks. The frame provides the system with load bearing capacity to support equipment in the horizontal tracks.

Abstract: A modular in-wall medical services unit for medical care facilities. A frame supports a cabinet with a cover panel providing electrical and/or gas outlets. Built-in electrical and gas conduits are included. A junction box and ends of the gas conduits near the top of the frame are accessible after wallboard is applied. Thus, wallboard can be installed before or after wiring is completed and gas connections are made. The self-aligning cover panel is “floatingly” supported on the frame so that a bead of sealant can be applied around the edge before the cover panel is “snugged up” to the wall and secured. The trim flanges on the cover panel include vertical equipment mounting tracks. Manufacturing is simplified by making the height of the frame adjustable; the same frame elements can be used to assemble units for different ceiling heights, decreasing the number of required parts in inventory and expediting assembly.

Abstract: A modular electric storage battery is adaptable to a variety of applications, and for example, as a starting, lighting and ignition (SLI) battery of a car, truck, motorcycle, lawn and garden equipment or other internal combustion engine powered product. The modular battery is constructed from a plurality of battery cells assembled into a battery housing. The cells are sealed, maintenance-free, rechargeable cells. The housing includes quick connect termination, and the starting application is adapted with a base unit having complementary termination. The modular battery and base unit also include aligning features to ensure proper interconnection of the battery terminals. The base unit may be adapted to receive several sizes of modular battery. In addition, a second modular battery, that may be configured as a flashlight or other device, is provided and can inter-connected with the base unit to provide a jump starting capability.

Abstract: A modular electric storage battery is adaptable to a variety of applications, and for example, as a starting, lighting and ignition (SLI) battery of a car, truck, motorcycle, lawn and garden equipment or other internal combustion engine powered product. The modular battery is constructed from a plurality of battery cells assembled into a battery housing. The cells are sealed, maintenance-free, rechargeable cells. The housing includes quick connect termination, and the starting application is adapted with a base unit having complementary termination. The modular battery and base unit also include aligning features to ensure proper interconnection of the battery terminals. The base unit may be adapted to receive several sizes of modular battery. In addition, a second modular battery, that may be configured as a flashlight or other device, is provided and can inter-connected with the base unit to provide a jump starting capability.

Abstract: A dual-battery switch circuit associated with a load is provided. The switch circuit includes a primary battery, a secondary battery, a circuit disposed to apply energy from the primary battery to the load, and a controller which disposed to sense attempts to apply energy to the load. The controller is configured to couple the secondary battery to the primary battery with respect to the load when a predetermined number of attempts to apply energy to the load occur within a predetermined time period after a first attempt. Alternatively, a controller is provided which couples the secondary battery to the primary battery with respect to the load when an attempt is made to apply energy to the load and the temperature is below a predetermined level.

Abstract: A latching automatic dual battery switch employs a first comparator to determine that a condition requiring engagement of a secondary battery exists. For example, a primary battery voltage is below a predetermined threshold, current drawn from the primary battery exceeds a predetermined threshold or ambient temperature is below a predetermined threshold. Engagement of an ignition switch is detected and used to clock the output of the comparator to a trigger circuit. The trigger circuit activates the triggerable switch on the leading edge of a signal generated by the detector circuit to connect a secondary battery or power source in parallel with the primary power source. The trigger circuit is leading edge activated so that conditions immediately prior to engagement of the ignition switch determine if the secondary battery is engaged. This avoids engaging the secondary battery as a result of a load surge dragging down the voltage after activation of an ignition switch.