A method for determining a condition of a system is provided, wherein the system has at least one general functional component and at least one safety-critical functional component. The method includes generating a general prediction value and a safety prediction value for the system using at least one input signal that represents condition data relating to the functional components. The general prediction value represents a predicted condition of at least the at least one general functional component. The safety prediction value represents a predicted condition of the at least one safety-critical functional component.

The embodiments of the present disclosure relate to a device and method for inspecting process and an electronic control device. The device for inspecting process may include a converting controller configuring to be controlled for, when a preset operation is performed in a serial communication, converting into at least one process monitoring message by inputting a specific value into a dummy area included in at least one message corresponding to the preset operation, and an inspecting controller configuring to be controlled for inspecting a process based on the process monitoring message.

Provided is a recording medium having a verification program recorded thereon, wherein the verification program is executed by computer and causes the computer to function as: a test information acquisition unit which acquires test information showing a test signal generated by a field device installed in a plant; a result information acquisition unit which acquires result information showing a test result signal output by a monitor device installed in the plant in response to the field device generating the test signal; and a verification unit which verifies, based on the test information and the result information, whether or not a relationship is established between the test signal and the test result signal, the relationship depending on a performed change of a signal that is generated by the field device and output from the monitor device before the signal is output from a monitor device.

A method and replay unit for sending secured messages via a messaging system to a receiver ECU to be tested, wherein the replay unit is connected to the device under test via the messaging system, wherein the replay unit is set up to receive first secured messages to be replayed, to remove from the first secured messages a first counter value and a first authenticator, and to generate a second authenticator by means of a second counter value, an encryption algorithm and a key, and wherein the replay unit is set up to generate second secured messages by adding the second counter value and the second authenticator to the first messages, and wherein the replay unit is further adapted to send the second secured messages to the recipient device under test via the messaging system.

The present invention provides a method for controlling M power supplies connected in series. The method comprises the following steps. Sending a test signal by a master power supply. Recording a first delay time when the test signal is received by the 1.sup.st power supply and a second delay time when the test signal is received by the M.sup.th power supply. Selecting a maximum delay time from the first delay time and the second delay time. Calculating a difference time between the first delay time and the second delay time. When the maximum delay time is the first delay time, the master power supply waits for the first delay time to execute the first command after receiving the first command. The 1st power supply directly executes the first command after receiving it. The M.sup.th power supply waits for the difference time to execute the first command after receiving it.

A method for a motion test and a control host of a movable machinery are provided. The method includes: loading a first motion test program; generating, according to the first motion test program, a template file recording first coordinate information indicated by the first motion test program for the movable machinery to perform a physical motion; loading a second motion test program; reading the template file according to program information of the second motion test program and comparing second coordinate information indicated by the second motion test program for the movable machinery to perform the physical motion with the first coordinate information; and generating, according to a comparison result, a warning message reflecting that a control for the movable machinery by the second motion test program may be abnormal.

Testing device for testing a LIN master device having a plurality of LIN channels. The device has a plurality of LIN channel terminals, each for connection to a LIN bus associated with one of the LIN channels of the LIN master device. One or more UART circuits are communicatively coupled to the plurality of LIN channel terminals for receiving and transmitting signals on the respective LIN bus. A controller is communicatively coupled to the one or more UART circuits and is configured to implement a LIN slave state machine on each of the LIN busses using the one or more UART circuits for emulating LIN slave behaviour.

Disclosed are exemplary embodiments of apparatus and methods for remote testing of controllers such as thermostats, to detect incorrect climate control system configuration parameters. In an exemplary embodiment, a mobile device wirelessly connects with a remote thermostat and sends signal(s) to the thermostat instructing the thermostat to perform climate control function(s) in predefined sequence(s). The mobile device receives signal(s) from the thermostat indicating whether the thermostat is performing the climate control function(s) in accordance with the sent signal(s). Based on the signal(s) received from the thermostat, the mobile device determines whether the thermostat is configured with accurate climate control system configuration parameters.

The application provide a high-voltage interlock device and a fault detection method thereof. The high-voltage interlock device includes: a first signal detection circuit, configured to collect a first original electric signal from a high-voltage interlock component and convert the first original electric signal into a first sampled signal while ensuring that the high-voltage interlock component is isolated from a fault diagnosis module; a second signal detection circuit, configured to collect a second original electric signal from the high-voltage interlock component and convert the second original electric signal into a second sampled signal while ensuring that the high-voltage interlock component is isolated from the fault diagnosis module; the fault diagnosis module, configured to determine a fault of the high-voltage interlock component according to the first and/or the second sampled signal, under a condition that at least one of the first and the second switch modules is in an OFF state.

Systems, methods, techniques and apparatuses of prognostic testing are disclosed. One exemplary embodiment is a power switch system comprising a power switch; a current sensor; a test current injection circuit comprising: a first direct current (DC) bus rail including an output terminal and a first power supply terminal, a second DC bus rail including an input terminal and a second power supply terminal, a diode coupled to the first DC bus rail, and a leg coupled to the first DC bus rail between the diode and the first power supply terminal and coupled to the second DC bus rail between the input terminal and the second power supply terminal, the leg including a capacitor and a semiconductor device coupled in series; and a controller configured to operate the test current injection circuit to transmit a test current to the current sensor and receive a voltage based on the test current.