An intelligent autonomous electrical vehicle platform assembly provides a mobile platform that comprises a self-motorized, electrical power drive to carry at least one platform container or passenger vehicle while being controlled remotely by an operator, or autonomously driven through artificial intelligence, or operated in a shared transportation system. The mobile platform has a platform chassis having wheels with a hub motor assembly contained therein. The hub motor is powered electrically from a battery charged by an external power source and/or a solar panel. The mobile platform carries a platform container that forms an enclosed area with various themes, including: a cargo transport area, a food and beverage area, a medical assistance area, or a home area having an inhabitant-assigned parking area and utility. The inhabitant of the mobile home receives creature comforts of a home environment, and controls movement, parking, energy, temperature, and payment options for the mobile home.

Load control apparatuses, systems and methods to control a location, orientation, or rotation of a suspended load by imparting thrust vectors to the suspended load or to a structure that holds the load. The load control apparatuses, systems and method may be integrated into a structure that holds a load, such as a rescue litter. The load control apparatuses, systems, and methods may be modular. The modular load control apparatuses, systems, and methods may be secured to a load or to a structure that holds the load.

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.

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.

Systems and methods for powering a medical imaging machine and a workstation are provided. A vehicle houses the medical imaging machine and workstation. A combustion engine for the vehicle is connected to a generator and a drivetrain for moving said vehicle. One or more electrical panels receive electrical power from said generator and provide a first output at a first voltage to the medical imaging machine and a second output at a second voltage to the workstation controls of the medical imaging machine.

The electric vehicle according to the present invention includes a moving base capable of traveling by electromotive drive, a seat including a seating part having a seating surface and disposed on the moving base, and a back plate used as a seat back corresponding to the seating surface and disposed on the moving base, the seat can move between a seating position with the seating surface facing upward, and a retracting position with the seating part retracted forward from the seating position, the back plate can be moved between a standing-up position located rearward and upward with respect to the seating part of the seat when at the seating position, and a lying-down position located forward of the standing-up position, and the back plate includes a baggage carrier formed on a back surface facing upward when at the lying-down position and allowing baggage to be placed thereon.

An apparatus for reversibly fixing a medical apparatus to a vehicle, the apparatus comprising a fitting to engage with the vehicle, and a support wherein the support comprises means for reversible engagement with a medical apparatus and the arrangement of the fitting relative to the support is adjustable so as to enable reversible fixing of the apparatus to a plurality of vehicle configurations.

Disclosed herein is a system and method for powering a medical imaging machine as well as an accompanying workstation, the system comprising an engine connected to a generator with a main circuit panel in electrical connection with the generator to create a branch circuit. Embodiments include a DC power supply electrically connected to the branch circuit; an inverter placed in electrical connection with a plurality of capacitors electrically connected in series; a generator control in electronical connection with the inverter and the generator; and an inverter panel in electrical communication with the inverter and providing a first output at a first voltage for the medical imaging machine and a second output at a second voltage for the workstation controls of the medical imaging machine. In a preferred embodiment, the engine is further arranged for propelling a truck which contains all of the power system components along with the medical imaging system.

A flexible rapid deployable system that may be used create an isolated space within a medical transport vehicle for use when transporting infected or contaminated patients, including a flexible tent-like liner creates a room inside the vehicle where both the patient and medical personnel can be isolated and contain contaminants within and a filtration system capable of producing the required air flow to maintain a negative pressurized isolated environment, sized to effectively accomplish this for the isolated cubic space.