The present invention is a mobile hyperbaric unit including a vehicle having a vehicle chassis with a front cabin and a rear bed. A partition can extend upwardly from the rear bed at a position next to the cabin. A pod can be removably attachable to the vehicle chassis, the pod can be sized and shaped to occupy and rest upon the rear bed. A detachable connection can enable attachment or detachment of the pod from the vehicle chassis. The partition can have a portion that extends at least partially over the pod top wall. A pod chassis enables the pod to be transported independently of the vehicle chassis. A control station that has ambient pressure can be located in between the partition and the pod. A desired pressure that is not ambient pressure can be maintained within the pod interior by support systems on the vehicle.

The present invention relates to a hyperbaric ambulance and transfer-under-pressure (TUP) unit. More particularly, the present invention relates to a vehicle for emergency transport and treatment of a patient that is capable of providing hyperbaric oxygen treatment to the patient, and a mobile unit for transferring the patient from the vehicle to a medical care facility. More particularly, the present invention includes a vehicle having a driver section and a vehicle chassis having a patient section that includes a hyperbaric treatment chamber. An entrance module can be positioned in between the driver section and the patient section, the entrance module having a communication and control compartment and a pressure module. The pressure module can have at least two pressure hatches, wherein at least one of the at least two pressure hatches allows personnel to enter the pressure module from the control compartment, and at least one of the at least two pressure hatches allows personnel to enter the treatment chamber from the pressure module. The pressure module enables a user to selectively enter or exit the entrance module while simultaneously maintaining a selected elevated pressure value in said patient section, and preferably enables a user to selectively enter or exit said hyperbaric treatment chamber from the entrance module while simultaneously maintaining a selected elevated pressure value in the patient section.

A remote health care apparatus is disclosed that incorporates a drone device and a health kit. The drone device includes one or more communication devices, and the drone device is capable of two-way auditory and visual communication. The health kit is capable of being transported by the drone device and can be detached from the drone device. In one embodiment, the health kit contains one or more medical devices selected from the group consisting of biometric measuring devices, specimen collection devices and lab testing tools.

A control apparatus includes a controller configured to acquire driving data regarding driving of a vehicle in which a medical examination can be performed, determine a driving condition of the vehicle based on the acquired driving data, and adjust implementation timing of at least one examination item included in the medical examination according to the determined driving condition.

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 member for fixing the portable medical appliance to the holding device via an adapter, a locking mechanism that is movable at least partially in the insertion direction between a first and second locking positions, and at least one clamping mechanism, the clamping mechanism being movable at least partially in the insertion direction between first and second clamping positions.

A control terminal includes a hardware processor. The processor performs a synchronization process to synchronize irradiation timing signals between an imaging device among multiple radiographic imaging devices and a radiation irradiation device, the radiographic imaging devices generating dynamic image data, the radiation irradiation device controlling continuous irradiation of a subject with radiation. The processor identifies, among the radiographic imaging devices, the radiographic imaging device that has an irradiation timing signal synchronized with an irradiation timing signal of the radiation irradiation device.

A radiation device is wirelessly connected to a radiography device that generates dynamic image data and which controls sequential radiation. The radiation device includes a signal generator and a first determiner. The signal generator generates (i) first pulse signals emitted by the radiography device, (ii) second pulse signals synchronized with a first count value obtained by counting up the first pulse signals, and (iii) a second count value obtained by counting up the second pulse signals. The first determiner determines whether to start radiation based on a delay time which is a difference between a first time point count value and a second time point count value. The first time point count value indicates a time point at which a radiation permission signal is transmitted. The second time point count value indicates a time point at which the radiation permission signal is received.

A method is for actuating a medical imaging device for generating a second three-dimensional image dataset including a target region in a region of interest of a patient with a functional impairment. The method includes providing a first three-dimensional image dataset including the region of interest of the patient; identifying the target region based on the first three-dimensional image dataset, a partial region of the region of interest with the functional impairment being determined; determining an imaging parameter for generating the second three-dimensional image dataset based on the identified target region; and actuating the medical imaging device based on the imaging parameter for the generation of the second three-dimensional image dataset.

Embodiments provide an aeromedical bio-containment module for use in a cargo plane. The aeromedical bio-containment module includes a fully integrated pallet system allowing for the module to roll onto the cargo plane. An integrated set of lugs allows the module to be locked into the cargo plane floor without the use of chains or other pallets. The aeromedical bio-containment module features a ward area for safe treatment of patients, an anteroom, and an office area for personnel. The aeromedical bio-containment module operates under a negative pressure system, and includes a full air filtration system to remove pathogens, particulates, and other airborne contaminants.

A command center storage system includes a stationary unit and a moveable unit. The stationary unit comprises a support platform and a lower storage cavity disposed at least partially below the support platform. The support platform has an upper and lower surface and a forward and rearward region. The lower surface is adjacent to a loading floor of a vehicle and the rearward region includes an opening to the lower storage chamber. The moveable unit moves between a rear position and a forward position relative to the stationary unit, and extends over a portion of the rearward region of the support platform and the opening to the lower storage chamber when the moveable unit is in the rear position. The moveable unit extends over a portion of the forward region of the support platform such that the opening to the lower storage chamber is accessible when the moveable unit is in the forward position.