Emergency vehicle patient transport systems are disclosed. In one embodiment, an emergency vehicle patient transport system includes: a loading passage providing access to an interior of an emergency vehicle; one or more tracks coupled to a floor of the emergency vehicle, a ceiling of the emergency vehicle, a wall of the emergency vehicle or combinations thereof wherein, a travel path is delineated by the one or more tracks; and a chair slidingly engaged with the one or more tracks, and vertically positioned between the floor and the ceiling. The chair locks in one or more set positions. And, the one or more set positions are selected from a group consisting of an airway care position, an extended airway care position, a procedural care position, a responder position, a patient care position, and a patient load position.

Described herein are illustrative embodiments of a multi-pivot seat base assembly including a first pivot assembly having a fixed part mountable to a floor and a pivotable part, a proximate arm having a proximate end mounted to the pivotable part of the first pivot assembly and a distal end including a fixed part of a second pivot assembly, a distal arm having a proximate end provided with a pivotable part of the second pivot assembly; the proximate end of the distal arm being pivotally mounted to the fixed part of the second pivot assembly; the distal arm including a distal end provided with a seat receiving post; and a controllable damping mechanism provided between the fixed part and the pivotable part of the first pivot assembly.

Systems and methods relate to a mobile intraoral scanning site. The mobile intraoral scanning site includes a vehicle and one or more three-dimensional intraoral scanners provided on the vehicle and configured to perform intraoral dentition scans of users on the vehicle. The vehicle can include at least two compartments configured to be used as scan stations for performing the intraoral dentitions scans of the users on the vehicle. The vehicle can be retrofitted to be used for the mobile intraoral scanning site. The one or more three-dimensional intraoral scanners can be wall-mounted on the vehicle. The vehicle can be provided with an internet connection such that the intraoral dentition scans are uploaded to a cloud server via the internet connection. Messages can be sent to a plurality of individuals inviting the plurality of individuals to schedule an appointment to receive an intraoral dentition scan at the vehicle.

A litter lift system includes a motor-driven winch and a lifting strap. The motor-driven winch includes a rotatable spool. The lifting strap has one end coupled to the rotatable spool and is movable in response to rotation of the rotatable spool. The lifting strap has a first lifting segment and a second lifting segment positioned away from the end of the lifting strap coupled to the rotatable spool. The first lifting segment and the second lifting segment are each forked to define two separate lifting loops. Rotation of the rotatable spool in a first direction raises the first lifting segment and the second lifting segment. Rotation of the rotatable spool in a second direction different from the first direction lowers the first lifting segment and the second lifting segment.

Apparatuses, components, methods, and techniques for providing mobile dental care are provided. An example system for providing mobile dental care includes a mobile dental office having a dental office computing device that is configured to communicate with one or more of a patient/guardian computing device, an institution/venue computing device, and a patient computing device to plan routes for the mobile dental office, to schedule appointments, and to transmit notifications regarding appointments.

A litter lift system includes a winch and a lifting strap. The winch includes a rotatable spool. The lifting strap has one end coupled to the rotatable spool and is movable due to rotation of the rotatable spool. The lifting strap has a first lifting segment and a second lifting segment positioned away from the end of the lifting strap coupled to the rotatable spool. The first lifting segment and the second lifting segment are each forked to interface with a frame of a litter at first lifting segment and second lifting segment distal ends, wherein a coupling is attached to the first lifting segment. Rotation of the rotatable spool in a first direction raises the first lifting segment and the second lifting segment. Rotation of the rotatable spool in a second direction different from the first direction lowers the first lifting segment and the second lifting segment.

A litter lift system includes a motor-driven winch and a lifting strap. The motor-driven winch includes a rotatable spool. The lifting strap has one end coupled to the rotatable spool and is movable in response to rotation of the rotatable spool. The lifting strap has a first lifting segment and a second lifting segment positioned away from the end of the lifting strap coupled to the rotatable spool. The first lifting segment and the second lifting segment are each forked to define two separate lifting loops. Rotation of the rotatable spool in a first direction raises the first lifting segment and the second lifting segment. Rotation of the rotatable spool in a second direction different from the first direction lowers the first lifting segment and the second lifting segment.

A compact rescue kit that has a base section, a caregiver seat assembly coupled to the base section, a basket section configured to receive and secure a patient basket, and a cylinder support configured to carry a compressed gas. The base section is configured to be secured to a compact off-road vehicle.

A litter lift system includes a winch system and a lifting strap. The winch system includes a rotatable spool. The lifting strap has a first end, a second end, and an intermediate segment extending away from the lifting strap between the first end and the second end. The first end is coupled to the rotatable spool such that rotation of the spool in a first direction winds the lifting strap about the spool and rotation of the spool in a second direction unwinds the lifting strap from the spool. The second end defines a first lifting segment and the intermediate segment defines a second lifting segment. The first lifting segment and the second lifting segment are each forked to define two separate lifting loops.

Systems and methods relate to a mobile intraoral scanning site. The mobile intraoral scanning site includes a vehicle and one or more three-dimensional intraoral scanners provided on the vehicle and configured to perform intraoral dentition scans of users on the vehicle. The vehicle can include at least two compartments configured to be used as scan stations for performing the intraoral dentitions scans of the users on the vehicle. The vehicle can be retrofitted to be used for the mobile intraoral scanning site. The one or more three-dimensional intraoral scanners can be wall-mounted on the vehicle. The vehicle can be provided with an internet connection such that the intraoral dentition scans are uploaded to a cloud server via the internet connection. Messages can be sent to a plurality of individuals inviting the plurality of individuals to schedule an appointment to receive an intraoral dentition scan at the vehicle.