A method of communicating with a vehicle repair facility includes a server receiving from a vehicle an indication that the vehicle requires repair and receiving from the vehicle communication regarding a vehicle location. The server determines a vehicle repair facility as corresponding to the vehicle location and determines contact information for the vehicle repair facility. The server then contacts the vehicle repair facility via the contact information with a message regarding repairs required for the vehicle, wherein the message includes a request for confirmation from the vehicle repair facility to verify use of authentic parts for the repairs required for the vehicle. The server can also determine user contact information for the registered user of the vehicle, and contact the registered user with a message regarding repairs required for the vehicle and a request for the user to verify use of authentic parts for the repairs required for the vehicle.

A testing device for testing a drive train or components within a marine propulsion system is provided and includes a first disk with a plurality of first disk depressions that faces a second disk with a plurality of second disk depressions. The first disk and the second disk are secured relative to each other so that they define a space, and a seal at outer edges of the disks is in fluid communication with the space. One of the first disk and the second disk is secured to a driven shaft. Upon rotation of the driven shaft, a load is produced due to shearing of fluid between the disks, yet no thrust is produced.

A testing device for testing a drive train or components within a marine propulsion system is provided and includes a first disk with a plurality of first disk depressions that faces a second disk with a plurality of second disk depressions. The first disk and the second disk are secured relative to each other so that they define a space, and a seal at outer edges of the disks is in fluid communication with the space. One of the first disk and the second disk is secured to a driven shaft. Upon rotation of the driven shaft, a load is produced due to shearing of fluid between the disks, yet no thrust is produced.

A diagnostics and maintenance tool can be used for performing diagnostics and maintenance of automotive, farming, construction, trucking, recreational and aviation vehicles & equipment. The diagnostics and maintenance tool can be used to measure distance traveled and pressure applied to brake, clutch and acceleration pedals, for example. The tool can reduce labor costs by reducing the time it takes perform certain diagnostic and maintenance activities. The tool can increase customer satisfaction by increasing accuracy and providing quantifiable data versus just going off of “human hunches.” The tool can reduce misdiagnoses by a technician who does not have to rely on “guesswork” or “process of elimination” for certain tasks. The tool may attach between a support and a component where distance traveled and applied pressure is to be measured. The tool may be pre-programmed to apply a known pressure or distance or may be remotely operated.

A diagnostics and maintenance tool can be used for performing diagnostics and maintenance of automotive, farming, construction, trucking, recreational and aviation vehicles & equipment. The diagnostics and maintenance tool can be used to measure distance traveled and pressure applied to brake, clutch and acceleration pedals, for example. The tool can reduce labor costs by reducing the time it takes perform certain diagnostic and maintenance activities. The tool can increase customer satisfaction by increasing accuracy and providing quantifiable data versus just going off of “human hunches.” The tool can reduce misdiagnoses by a technician who does not have to rely on “guesswork” or “process of elimination” for certain tasks. The tool may attach between a support and a component where distance traveled and applied pressure is to be measured. The tool may be pre-programmed to apply a known pressure or distance or may be remotely operated.

A system and method preserves raw vibration data for a physical event involving a transport vehicle such as a helicopter, plane, boat, car, or truck. The event may involve unexpected mechanical stresses on the vehicle. The system and method preserves raw vibration data for parts of the transport vehicle, such as from multiple points along the drive train. The preserved raw vibration data includes data from time prior to the physical event. In an embodiment, the system and method continuously detects vibration data, and stores the most recent vibration data in a circular memory buffer. The buffer is continually updated with the most current vibration data. When an event is automatically detected or manually triggered, the most recently saved vibration data is transferred from the buffer to permanent storage, along with vibration data obtained subsequent to the event. This allows for a more thorough post-event analysis.

A system and method preserves raw vibration data for a physical event involving a transport vehicle such as a helicopter, plane, boat, car, or truck. The event may involve unexpected mechanical stresses on the vehicle. The system and method preserves raw vibration data for parts of the transport vehicle, such as from multiple points along the drive train. The preserved raw vibration data includes data from time prior to the physical event. In an embodiment, the system and method continuously detects vibration data, and stores the most recent vibration data in a circular memory buffer. The buffer is continually updated with the most current vibration data. When an event is automatically detected or manually triggered, the most recently saved vibration data is transferred from the buffer to permanent storage, along with vibration data obtained subsequent to the event. This allows for a more thorough post-event analysis.

A system, method, and computer-readable medium for facilitating treatment of a vehicle damaged in a crash utilizes near real-time monitoring of the market value of a vehicle type that includes the damaged vehicle, its vehicle parts, and/or one or more arranged vehicle treatments to approximate an extent of damage to the damaged vehicle and determine a prospective vehicle treatment facility for treating the damaged vehicle. In particular, the system continually monitors the market value of a vehicle, its vehicle parts, and/or a prescribed vehicle treatment to calculate a treatment complexity level, e.g., vehicle repair, total loss; for treating the damaged vehicle.

A system, method, and computer-readable medium for facilitating treatment of a vehicle damaged in a crash utilizes near real-time monitoring of the market value of a vehicle type that includes the damaged vehicle, its vehicle parts, and/or one or more arranged vehicle treatments to approximate an extent of damage to the damaged vehicle and determine a prospective vehicle treatment facility for treating the damaged vehicle. In particular, the system continually monitors the market value of a vehicle, its vehicle parts, and/or a prescribed vehicle treatment to calculate a treatment complexity level, e.g., vehicle repair, total loss; for treating the damaged vehicle.

A computer-implemented method for checking the correct deployment of an airbag device comprises, in a vehicle or test vehicle model, optionally arranging a dummy or model of a vehicle occupant in the vicinity of the airbag device, triggering the deployment of the air chamber of the airbag device, taking at least one image of a scene including the air chamber at a plurality of discrete times following the triggering of its deployment and verifying the volume of inflation and/or deployment of the air chamber at the plurality of discrete times following the triggering of its deployment on the basis of the at least one image.