A vehicle scratch detection system includes a scratch detection element, disposed on a vehicle body and capable of detecting a scratch of the vehicle body, a control unit, configured to be capable of analyzing and processing detection information of the scratch detection element and determining information related to scratch, and an alarm device. The control unit is capable of triggering the alarm device to send an alarm signal according to a result of the analyzing and processing.

A vehicle scratch detection system includes a scratch detection element, disposed on a vehicle body and capable of detecting a scratch of the vehicle body, a control unit, configured to be capable of analyzing and processing detection information of the scratch detection element and determining information related to scratch, and an alarm device. The control unit is capable of triggering the alarm device to send an alarm signal according to a result of the analyzing and processing.

An information processing apparatus includes a controller, a screen data transmitter, and a receiver. The controller generates, on a basis of progress information indicating a progress status of inspection of a vehicle, first Web screen data directed to displaying a first Web screen that presents a procedure of inspecting the vehicle. The screen data transmitter transmits the first Web screen data to a first communication terminal. The receiver receives the progress information and inspection information of the vehicle, which are transmitted from the first communication terminal in response to a user operation, the user operation being performed on the first communication terminal displaying the first Web screen. The controller generates second Web screen data directed to displaying a second Web screen that presents the inspection information. The screen data transmitter transmits the second Web screen data to a second communication terminal.

An information processing apparatus includes a controller, a screen data transmitter, and a receiver. The controller generates, on a basis of progress information indicating a progress status of inspection of a vehicle, first Web screen data directed to displaying a first Web screen that presents a procedure of inspecting the vehicle. The screen data transmitter transmits the first Web screen data to a first communication terminal. The receiver receives the progress information and inspection information of the vehicle, which are transmitted from the first communication terminal in response to a user operation, the user operation being performed on the first communication terminal displaying the first Web screen. The controller generates second Web screen data directed to displaying a second Web screen that presents the inspection information. The screen data transmitter transmits the second Web screen data to a second communication terminal.

A system and method for performing a diagnostic on a hydraulic system in a vehicle while the vehicle is at a standstill. The method includes, by means of an electronic processor, moving a plunger at a constant rate, determining a position of the plunger, receiving a pressure of the hydraulic system from a pressure sensor, comparing the determined position and the measured pressure to a position versus pressure graph, and sending a diagnostic to a diagnostic indicator.

A system and method for performing a diagnostic on a hydraulic system in a vehicle while the vehicle is at a standstill. The method includes, by means of an electronic processor, moving a plunger at a constant rate, determining a position of the plunger, receiving a pressure of the hydraulic system from a pressure sensor, comparing the determined position and the measured pressure to a position versus pressure graph, and sending a diagnostic to a diagnostic indicator.

A method for estimating the mass of a vehicle system includes a number of steps including a first step of providing a vehicle system having at least a powertrain and a vehicle control module. Three different mass estimates are assigned with the last mass estimate being the most accurate. The mass estimates are used in the vehicle control module calculations for vehicle control parameters in the event that the weight of the vehicle changes.

The disclosure relates generally to an in-vehicle feedback system, and more particularly, to an in-vehicle device with a display or graphical interface that collects driving data and provides feedback based on the driving data. The system may comprise an in-vehicle device that includes a graphical user interface and a processor and a data collection device wirelessly connected to the in-vehicle device. The in-vehicle device may be configured to receive vehicle telematics data from the data collection device and the processor may process the telematics data in real time and cause the telematics data to be displayed on the graphical user interface. The graphical user interface may include a speed display and an acceleration display.

An example apparatus includes a parameter calculator to determine a baseline value of a set of health parameters for a turbine engine of a vehicle based on a first set of sensor measurements to estimate an initial health of turbine engine components, and determine an operational value of the set of health parameters based on a second set of sensor measurements to estimate an operational health of the turbine engine components. The apparatus further includes a difference calculator to calculate a difference between the baseline value and the operational value to assess a health of the turbine engine, a database to store the first set of sensor measurements or the initial health of the turbine engine components, and an alert generator to generate an alert when the difference satisfies a threshold, the alert including a notification to perform maintenance on the component based on the difference and the threshold.

A test system and method for testing a coupled hybrid dynamic system in simulated motion along a path includes a physical test rig configured to test a physical component. A processor is configured with modeled test data, a first virtual model portion and a second virtual model portion of the coupled hybrid dynamic system, the first virtual model portion, the second virtual model portion and the physical component comprising the coupled hybrid dynamic system. The processor is configured to control the test rig such that the component under test responds to the second virtual model portion, that in turn receives a first input comprising the modeled test data, a second input being motion of the first virtual model portion of the coupled hybrid dynamic system, a third input being a control mode response from the test rig having the physical component under test and a fourth input comprising guidance controls for the coupled hybrid dynamic system.