The present disclosed technology is a generally two-dimensional display and audible alarm to show notification and urgency information from multiple object detection radar sensors on a vehicle. When a particular sensor is reporting to the vehicle's operation and control center, the corresponding light(s) according to a top view of the vehicle in the array may light up, pulse or flash accordingly. In addition, an audible alarm may operate in concert and emphasis with the light(s) display.

Delay calibration for digital signal chains of SFCW systems is disclosed. An example calibration method includes receiving a burst with a test pulse, the burst having a duration of L clock cycles; receiving a trigger indicative of a time when the burst was transmitted; generating a digital signal indicative of the received burst; for each of L clock cycles, computing a moving average of a subset of digital samples and an amplitude for each average; identifying one moving average for which the computed amplitude is closest to an expected amplitude; identifying the clock cycle of the identified moving average; and updating at least one delay to be applied in digital signal processing of received bursts based on a difference between the trigger and the identified clock cycle. The delay may be used for selecting digital samples of the received signal that contain valid data for performing further data processing.

Provided are an information processing device and an information processing method for processing detection information of a sensor, a computer program, an information processing system, and a mobile device.

The information processing device includes a processing unit that performs computation processing of a detection signal of a radar of FCM mode, and a control unit that controls the computation processing mode in the processing unit on the basis of the detection result of another sensor. The radar is mounted on a vehicle and used, and the another sensor is a vehicle-mounted sensor of the same vehicle. The control unit controls at least one of the computation area or the computation accuracy of computation processing in the processing unit on the basis of the detection result of the another sensor.

In some examples, a terrain awareness device includes processing circuitry configured to determine a terrain feature in a travel path of the ownship vehicle. The processing circuitry is also configured to present, on a display, a first graphical user interface indicating the terrain feature. The terrain awareness device also includes a memory configured to store a location of the terrain feature, and the terrain awareness device is configured to receive traffic data from a traffic device. The processing circuitry is further configured to determine a location of a second vehicle based on the traffic data and determine that the ownship first vehicle has been instructed to synchronize with a second vehicle. The processing circuitry is configured to generate a second graphical user interface indicating that the ownship vehicle has been instructed to synchronize with the second vehicle and present the second graphical user interface on the display.

In some examples, a terrain awareness device includes processing circuitry configured to determine a terrain feature in a travel path of the ownship vehicle. The processing circuitry is also configured to present, on a display, a first graphical user interface indicating the terrain feature. The terrain awareness device also includes a memory configured to store a location of the terrain feature, and the terrain awareness device is configured to receive traffic data from a traffic device. The processing circuitry is further configured to determine a location of a second vehicle based on the traffic data and determine that the ownship first vehicle has been instructed to synchronize with a second vehicle. The processing circuitry is configured to generate a second graphical user interface indicating that the ownship vehicle has been instructed to synchronize with the second vehicle and present the second graphical user interface on the display.

Described herein are systems and methods that detect an electromagnetic signal in a constant interference environment. In one embodiment, the electromagnetic signal is a light signal. A constant interference detector may detect false signal “hits” generated by constant interference, such as bright light saturation, from valid signals. The constant interference detector determines if there is constant interference for a time period that is greater than a time period of the valid signal. In one embodiment, if a received signal exceeds a programmable threshold value for a programmable period of time, when compared to previously stored ambient light, a control signal is generated to inform the next higher network layer of a sudden change in ambient light. This control signal can be used to either discard the present return or process the signal in a different way. A constant interference detector may be a component of a LIDAR system.

A rehabilitation support apparatus that provides rehabilitation comfortable for a user includes a detector that detects a direction of a head of a user wearing a head mounted display, a first display controller that generates, in a virtual space, a rehabilitation target object to be visually recognized by the user and displays the target object on the head mounted display in accordance with the direction of the head of the user detected by the detector, and a second display controller that displays, on the head mounted display, a notification image used to notify the user of a position of the target object.

A rehabilitation support apparatus that provides rehabilitation comfortable for a user includes a detector that detects a direction of a head of a user wearing a head mounted display, a first display controller that generates, in a virtual space, a rehabilitation target object to be visually recognized by the user and displays the target object on the head mounted display in accordance with the direction of the head of the user detected by the detector, and a second display controller that displays, on the head mounted display, a notification image used to notify the user of a position of the target object.

Provided are an intrusion detection system and an intrusion detection method. The intrusion detection system includes: a camera which photographs a surveillance area and generates image data; a millimeter-wave radar which scans a scanning area contained within the surveillance area and generates millimeter-wave data; and an information processing server which is connected to the camera and the millimeter-wave radar, and acquires image data and millimeter-wave data. The information processing server is equipped with: a data synchronization unit which synchronizes the image data and millimeter-wave data; a determination unit which determines whether an object has intruded into a detection area contained within the scanning area, on the basis of millimeter-wave data; and a screen generation unit which associates the synchronized image data and millimeter-wave data and generates a surveillance screen which indicates the determination results generated by the determination unit.

Provided is a measuring system (1), which comprises a sender unit (10) with at least one individually operable LED lighting unit (12) with a luminous area which has a characteristic longitudinal extent (107) of less than or equal to 100 m and/or a surface area of less than or equal to 10.sup.4 m.sup.2, wherein the LED lighting unit (12) is configured to emit at least one light pulse as a sender signal (11) during operation, and comprises the one receiver unit (20) with at least one detector unit (22) for receiving a return signal (21), which comprises at least a part of the sender signal (11) reflected by an external object. Furthermore, use of at least one individually operable LED lighting unit as a sender unit in a measuring system, a method for operating a measuring system and a lighting source having a measuring system are provided.