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 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 medical care system having one or more clinician rooms, and one or more patient areas. The clinician rooms and patient areas are separate from one another to prevent an infectious virus (such as COVID-19) from spreading from one room or area to another room or area. A dividing wall is provided between each clinician room and the respective patient area. A glass partition is located in the dividing wall and one or more gloves are provided in the glass partition. Thus, a clinician located in a clinician room can interact with a patient located in the patient area to conduct a physical medical examination, such as for example to take the temperature of the patient or test for a virus.

A safety system includes a vehicle having a cab and a compartment rearward of the cab, an engine that provides motive power to the vehicle, a generator positioned in the vehicle so as to supply electrical energy to the compartment, an alarm positioned in or on the vehicle so as to be cooperative with the engine and the generator, an alarm acknowledge switch positioned in or on the vehicle, a shore power connection on the vehicle, and a control module positioned in or on the vehicle so as to selectively activate or deactivate the alarm or to deactivate the generator when certain conditions occur. The generator has an on/off switch so as to turn the generator either on or off. The alarm is activated when the generator is turned on and the engine is not running. The alarm acknowledge switch is activatable as to turn the alarm off. The shore power connection is adapted to be connected to a source of electrical energy exterior of the vehicle.

A self-contained ambulance equipment module comprises an undercarriage, a module body constructed of a sturdy material mounted on top of the undercarriage, the body housing a plurality of ambulance equipment, and a quick disconnect coupler attached to the module body and configured to couple to a vehicle.

The invention relates to a medical vehicle (1) comprising a medical scanning system (2) that is configured to perform medical scans while the medical vehicle (1) is in motion. The medical scanning system (2) comprises a rotating component (3) that is configured to rotate around a rotation axis (R) and means for limiting gyroscopic forces caused by the rotating component (3) when the rotation axis (R) changes its direction. The means for limiting gyroscopic forces comprise a computing unit (5) and sensors (4) and/or interfaces to sensors (4), wherein the computing unit (5) is adapted to receive sensor readings generated by the sensors (4) and to determine and/or predict the gyroscopic forces based on the sensor readings and is configured to issue a speed limit, in particular a non-zero speed limit, for the medical vehicle (1) based on the determined and/or predicted gyroscopic forces. The intention also relates to a method for operating a medical scanning system (2) in a moving medical vehicle (1).

The invention relates to a medical vehicle (1) comprising a compartment (2) with a medical imaging system (3), wherein the medical imaging system (3) comprises at least one system support sensor (4). The system support sensors (4) augment the vehicle's own sensors and/or replace equivalent sensors in the vehicle. The medical vehicle (1) is configured to obtain sensor readings from the at least one system support sensor (4) during operation of the medical vehicle (1), analyze the sensor readings and provide feedback based on the analyzed sensor readings. The invention further relates to a corresponding method for operating a medical vehicle (1).

A server includes: a communication device configured to acquire information on a user who is to receive a physical exam, the information including a residence of the user and an examination item of the user; and one or more processors configured to determine a travel schedule of a plurality of vehicles each configured to perform one or more of a plurality of the examination items of the physical exam, the travel schedule being a schedule for the vehicles that offer the examination items of a plurality of the users to travel around the residences of the users.

An emergency light system for an emergency vehicle. The light system can have a low profile configuration for improved aesthetics and aerodynamics. Further the light system can be configured to allow for customization of the individual emergency lights and/or easy access to the individual emergency lights.

Mobile medical clinic vehicles are disclosed. An enclosure is connected to a chassis and accommodates medical equipment items for patients and healthcare providers to utilize. One or more electrical components receive electrical power output from a generator, when operated, and provide a first output at a first voltage to a first subset of the medical equipment items and a second output at a second voltage to a second subset of the medical equipment items.