The invention relates to a bench with a scales function, which comprises sensors disposed in parallel along lower lateral bars of the bench and connected to a digital transmitter that transmits to a screen by means of a cable or Bluetooth. In addition to the current functions of the platforms to which the beds are anchored in the vehicles, the bench with an electronic scales function provides the exact value of the weight of the patient, in real time, facilitating the calculation of the precise doses of drugs, fluids, etc.

Completely self-contained and self-supported mobile isolation and containment unit (ICU) facilities are disclosed that can be transported on roads and highways to a location in need of an isolation facility and rapidly deployed to provide isolation and treatment. In some embodiments, exemplary ICUs can safely provide isolation and treatment to a level that meets or exceeds bricks and mortar hospital isolation and containment facilities and any applicable regulations. In some examples, the mobile ICUs include sophisticated heating ventilation and air Conditioning (HVAC) systems that can separately maintain areas within the facility at different levels of pressure to ensure contaminated air does not escape the facility. And the mobile ICUs may also incorporate a multiple-vestibule with airlock design for ensuring safe entry and exit from the facility. The mobile ICUs disclosed herein may also include automated decontamination systems for disinfecting and/or sterilizing spaces within the facility.

New and improved CT imaging systems are presented which improve the ability to deploy CT imaging in a mobile setting, such as in an ambulatory setting or as part of a mobile hospital unit. Improvements disclosed include implementation of an internal drive system for moving a scanner component relative to a fixed or static platform/base, improved modularity of components for quick maintenance/repair and the inclusion of an integrated patient alignment mechanism connected directly to the CT system.

One aspect of the invention provides a mobile clinic including: an intermodal container defining at least a first opening and a second opening; a partition wall located within the intermodal container, the partition wall separating the intermodal container into an anteroom and a treatment room; and an access control device programmed to prevent passage from the anteroom into the treatment room until a user's donning of personal protective equipment is verified. Another aspect of the invention provides a collapsible structure including: a rigid base; a rigid roof; one or more collapsible walls extending between the floor and the base; and an erector system comprising four cross-bars. Another aspect of the invention provides a crate including: a bottom panel; a top panel; and a plurality of walls, wherein at least two of said plurality of wails including one or more conduits.

The invention relates to a medical container unit for designing and/or manufacturing an implant, comprising a plurality of container subunits, each of which forms a sector, is equipped with at least one means for designing and/or manufacturing an implant, and is formed by self-supporting partial substructures on at least two sides.

A holding device for holding a portable medical appliance and for introducing it into a mounting rail includes a main body with a main face and at least one guide element having a guide profile, the at least one guide element being formed along a longitudinal axis of the main body and extending from the main body in an insertion direction. The at least one guide element is introducible into a guide in the mounting rail. The holding device also includes at least one fixing means for fixing the portable medical appliance to the holding device via an adapter, a locking means that is movable at least partially in the insertion direction between a first and second locking positions, and at least one clamping means, the clamping means being movable at least partially in the insertion direction between first and second clamping positions.

An autonomous smart car includes a bio-signal sensing unit sensing a bio-condition of a person in the autonomous smart car; a communication unit supporting wireless communication between the autonomous smart car and an external of the autonomous smart car; a memory unit storing basic data of the person in the autonomous smart car, general bio-signal data, bio-signal data sensed by the bio-signal sensing unit, and hospital information data; an autonomous driving unit autonomously driving the autonomous smart car to a destination; an emergency handling unit enabling the autonomous smart car to inform that an emergency patient is in the autonomous smart car to outside when the bio-condition of the person in the autonomous smart car indicates an emergency; and a control unit analyzing a current condition of the person by comparing a bio-signal sensed by the bio-signal sensing unit with the data stored in the memory unit.

A method of transporting equipment modules to an incident scene with an comprises: determining an initial location of the incident scene; dispatching an ambulance loaded with the autonomous mobile response unit and a plurality of equipment modules to the initial location; determining a refined location of the incident scene; selecting a first equipment module; dispensing the first equipment module from the ambulance onto the autonomous mobile response unit; deploying the autonomous mobile response unit from the ambulance at the initial location; communicating the refined location of the incident scene to the autonomous mobile response unit; generating, with the navigation system, a drive path from the initial location to the refined location; and driving, with the drive system, the autonomous mobile response unit loaded with the first equipment module based on the drive path such that the autonomous mobile response unit travels from the initial location to the refined location.

Provided are computing system and method for documenting and communication information within a mobile medical care environment. A mounting system supports the computing system within a mobile medical care environment. The computing system includes a decoding module that causes the processing circuitry to scan, with the non-contact scanner, a computer-readable code encoding information about a first medicinal substance. A record module causes the processing circuitry to link at least a portion of the encoded information from the computer-readable code to a patient ID that is associated with the patient and stored in the memory. A communication module transmits (i) the portion of the information from the barcode linked to the patient ID, and (ii) the patient ID to be stored by a medical record system at a healthcare destination.

A vehicle includes a computed tomographic system (CT) including a CT gantry having an inner peripheral, and a subject window in a surface of the vehicle. The subject window is configured to be exposed to an exterior of the vehicle via a side face of the vehicle, such that the subject window is configured to enable a subject to enter or exit from the inner peripheral of the CT gantry in a body axis direction of the CT.