What is presented is a fluid fitting used in a facility that has a plurality of surfaces and a source of fluid pressure. The fluid fitting comprises a mounting component, a conduit adapter, a port, and a fluid management device. The mounting component makes the fluid fitting mountable on the external side of the surface. The conduit adapter is connectable to the fluid handling conduit on the internal side of the surface. The port has a flow path to the conduit adapter that enables a fluid connection between the conduit adapter and the port. The fluid management device is permanently incorporated in the flow path such that the fluid management device is permanently connected to the port at the fluid dispensing point.

A system for use with a hospital bed having circuitry and a standard AC power outlet spaced from the hospital bed is provided. The system includes a cable assembly couplable to the circuitry of the hospital bed. The cable assembly has power conductors and at least one data conductor. The cable assembly also has a plug including a first power coupler coupled to the power conductors and a first data coupler coupled to the at least one data conductor. The system also includes a second data coupler mountable adjacent the standard AC power outlet. The second data coupler is configured to couple to the first data coupler when the first power coupler is coupled to the standard AC power outlet.

What is presented is a fluid fitting used in a facility that has a plurality of surfaces and a source of fluid pressure. The fluid fitting comprises a mounting component, a conduit adapter, a port, and a fluid management device. The mounting component makes the fluid fitting mountable on the external side of the surface. The conduit adapter is connectable to the fluid handling conduit on the internal side of the surface. The port has a flow path to the conduit adapter that enables a fluid connection between the conduit adapter and the port. The fluid management device is permanently incorporated in the flow path such that the fluid management device is permanently connected to the port at the fluid dispensing point.

A power transfer system comprises a patient transport apparatus and a power transfer device. The power transfer system provides convenience and ease of connection between a power source and the patient transport apparatus to provide power to one or more electrically powered devices on the patient transport apparatus or to provide energy for an energy storage device on the patient transport apparatus.

A transfer device for a patient care apparatus includes: a first docking cup and a second docking cup, each of the first docking cup and the second docking cup aligned with a vertical axis, defining a conical surface aligned with the vertical axis, and sized to receive a receiver; a security mechanism enclosed within the transfer device; a support shaft disposed between the first docking cup and the second docking cup; and a shaft brake mechanism engageable with the support shaft, at least a portion of the shaft brake mechanism disposed below the support shaft and disposed between the first docking cup and the second docking cup.

A system for use with a hospital bed having circuitry and a standard AC power outlet spaced from the hospital bed is provided. The system includes a cable assembly couplable to the circuitry of the hospital bed. The cable assembly has power conductors and at least one data conductor. The cable assembly also has a plug including a first power coupler coupled to the power conductors and a first data coupler coupled to the at least one data conductor. The system also includes a second data coupler mountable adjacent the standard AC power outlet. The second data coupler is configured to couple to the first data coupler when the first power coupler is coupled to the standard AC power outlet.

An arrangement for the medical care of a patient. The arrangement includes a total set of supply ports (22.1, 30.1), a frame (20), at least one detachably mountable wall panel (11.1, 11.4) and a respective wall panel fastening unit for each detachably mountable wall panel (11.1, 11.4). Each detachably mountable wall panel (11.1, 11.4) can be detachably fastened to the frame (20). The total set of supply ports (22.1, 30.1) provides the supply media, which all the medical devices need for intensive care. With the detachably mountable wall panels (11.1, 11.4) fastened to the frame (20), a remaining set of supply ports (22.1) remains free. This remaining set is capable of supplying the medical devices that are needed for normal care.

A medical appliance for use in a medical environment has a holding mechanism for holding the appliance on a support device assigned to the medical environment, and an attachment mechanism for attaching the appliance to at least one electrical connection line, wherein the holding mechanism is designed as at least one support bolt connected to a support structure of the appliance, and wherein the support bolt has the attachment mechanism. The invention also relates to a medical appliance system.

A power transfer system comprises a patient transport apparatus and a power transfer device. The power transfer system provides convenience and ease of connection between a power source and the patient transport apparatus to provide power to one or more electrically powered devices on the patient transport apparatus or to provide energy for an energy storage device on the patient transport apparatus.

Method and system allowing more accurate detection and identification of unwanted arcing include novel processing of signal voltage representing recovered power-line current. In one implementation, arc-faults are detected based on numerical analysis where individual cycles of line voltage and current are observed and data collected during each cycle is processed to estimate likelihood of presence of arc-event within each individual cycle based on pre-defined number of arc-events occurring within pre-defined number of contiguous cycles. In another implementation, fast transient current spikes detection can be done by: computing difference values between consecutive line-current samples collected over a cycle, average of differences, and peak-to-peak value of line-current; comparing each difference value to average of difference; comparing each difference value to peak-to-peak value; and, based on calculation of composite of two comparisons, using thresholds to determine if arcing is present within processed cycle.