Abstract: An in-cabin monitoring system includes a camera which captures an image of an inside of a cabin of a vehicle, a light source which irradiates the inside of the cabin with light, and a controller which controls the camera and the light source. The light source is capable of emitting first light which is light to be emitted when checking whether a person is present using the camera and second light which is stronger than the first light. The controller captures an image of the inside of the cabin using the camera while causing the light source to emit the second light, before the person gets in the vehicle and after the person gets out of the vehicle.

Abstract: An in-cabin monitoring system includes a camera which captures an image of an inside of a cabin of a vehicle, a light source which irradiates the inside of the cabin with light, and a controller which controls the camera and the light source. The light source is capable of emitting first light which is light to be emitted when checking whether a person is present using the camera and second light which is stronger than the first light. The controller captures an image of the inside of the cabin using the camera while causing the light source to emit the second light, before the person gets in the vehicle and after the person gets out of the vehicle.

Abstract: An in-cabin monitoring system includes an electronic mirror provided inside a vehicle cabin, a camera that captures an image of an imaging target inside the vehicle cabin, and a light source that is provided in the electronic mirror and emits light into the vehicle cabin. The light source includes a plurality of light emitting diodes, and at least one light emitting diode of the plurality of light emitting diodes are disposed such that optical axes of the one or more light emitting diodes extend in directions different from a direction of an optical axis of an other light emitting diode of the plurality of light emitting diodes.

Abstract: An example of a controller calculates the orientation of the controller based on an output from an inertial sensor, and when a value representing the calculated orientation satisfies a first condition, compresses data in a mode 2, and when the first condition is not satisfied, but a second condition is satisfied, compresses the data in a mode 1, and when the second condition is not satisfied, compresses the data in a mode 0. Then, the controller transmits the compressed data to another apparatus.

Abstract: An object tracking method includes: predicting a prediction distribution which is a distribution of each of prediction pose locations of first objects in a current frame by inputting pose time-sequence data to a pose predictor; estimating a set of locations of each of second objects in the current frame by inputting the current frame to a pose estimator; obtaining identification information indicating a one-to-one correspondence between the second objects and the first objects and location information of the second objects by matching the set of locations and the prediction distribution, to output the obtained identification information and location information; and updating the pose time-sequence data by adding, to the pose time-sequence data and based on the obtained identification information and location information, data which includes coordinates indicating a pose of each of the first objects and is obtained from the predicted prediction distribution.

Abstract: To precisely specify lane regions that are present in an image. In a situation in which a lane specification device an imaging device, and a swimming pool are present, a processor in the lane specification device according to the present disclosure specifies lane regions that are present in an image on the basis of a pattern in which information obtained on the basis of outlines of objects in the image captured by the imaging device appears in the image. In this manner, it is possible to precisely specify the lane regions that are present in the image.

Abstract: An example of a controller calculates the orientation of the controller based on an output from an inertial sensor, and when a value representing the calculated orientation satisfies a first condition, compresses data in a mode 2, and when the first condition is not satisfied, but a second condition is satisfied, compresses the data in a mode 1, and when the second condition is not satisfied, compresses the data in a mode 0. Then, the controller transmits the compressed data to another apparatus.

Abstract: An example of a controller calculates the orientation of the controller based on an output from an inertial sensor, and when a value representing the calculated orientation satisfies a first condition, compresses data in a mode 2, and when the first condition is not satisfied, but a second condition is satisfied, compresses the data in a mode 1, and when the second condition is not satisfied, compresses the data in a mode 0. Then, the controller transmits the compressed data to another apparatus.

Abstract: An object tracking method includes: predicting a prediction distribution which is a distribution of each of prediction pose locations of first objects in a current frame by inputting pose time-sequence data to a pose predictor; estimating a set of locations of each of second objects in the current frame by inputting the current frame to a pose estimator; obtaining identification information indicating a one-to-one correspondence between the second objects and the first objects and location information of the second objects by matching the set of locations and the prediction distribution, to output the obtained identification information and location information; and updating the pose time-sequence data by adding, to the pose time-sequence data and based on the obtained identification information and location information, data which includes coordinates indicating a pose of each of the first objects and is obtained from the predicted prediction distribution.

Abstract: An example game system includes a main body apparatus and a game controller. The game controller has an analog stick, a memory storing correction parameter information including a first manufacturing process correction parameter value determined in a manufacturing process in connection with the analog stick, a first user correction parameter value determined in accordance with an operation by a user onto the analog stick, and a first model adjustment value corresponding to a model of the game controller, and a first control circuit transmitting the correction parameter information to the main body apparatus. The main body apparatus has a second control circuit which selects any of the first manufacturing process correction parameter value and the first user correction parameter value and performs game processing based on the selected correction parameter value, the first model adjustment value, and input data from the analog stick.

Abstract: An example of a controller calculates the orientation of the controller based on an output from an inertial sensor, and when a value representing the calculated orientation satisfies a first condition, compresses data in a mode 2, and when the first condition is not satisfied, but a second condition is satisfied, compresses the data in a mode 1, and when the second condition is not satisfied, compresses the data in a mode 0. Then, the controller transmits the compressed data to another apparatus.

Abstract: An HMD includes an attitude calculating unit, an attitude correcting unit, an image generating unit, and a display control unit. The attitude calculating unit may calculate a first attitude of the HMD based on an angular rate detected by an angular rate sensor. The attitude correcting unit may correct the first attitude to calculate a second attitude, based on an acceleration detected by an accelerometer and a rotation amount per predetermined time of the HMD. The image generating unit may generate an image according to the second attitude. The display control unit may cause a display to display the image.

Abstract: An information processing system includes an operation apparatus and a main body apparatus which is capable of communicating with the operation apparatus. The operation apparatus includes a first transceiver which transmits operation data to the main body apparatus. The main body apparatus includes a memory in which an operation scheme of the operation apparatus is registered, a second transceiver which receives the operation data, and a controller. The controller registers the operation scheme of the operation apparatus in the memory as a first operation scheme when the operation data received by the second transceiver indicates a first operation and registers the operation scheme of the operation apparatus in the memory as a second operation scheme when the operation data received by the second transceiver indicates a second operation, and performs processing based on the operation scheme registered in the memory onto the operation data received by the second transceiver.

Abstract: An HMD includes an attitude calculating unit, an attitude correcting unit, an image generating unit, and a display control unit. The attitude calculating unit may calculate a first attitude of the HMD based on an angular rate detected by an angular rate sensor. The attitude correcting unit may correct the first attitude to calculate a second attitude, based on an acceleration detected by an accelerometer and a rotation amount per predetermined time of the HMD. The image generating unit may generate an image according to the second attitude. The display control unit may cause a display to display the image.

Abstract: An information processing system includes an operation apparatus and a main body apparatus which is capable of communicating with the operation apparatus. The operation apparatus includes an operation portion and a transmitter which transmits operation data to an information processing apparatus. The information processing apparatus includes a receiver which receives operation data and a controller. The controller sets any of a first mode in which first information processing is performed based on the received operation data and a second mode in which second information processing is performed based on the operation data while a first application is executed, makes transition from execution of the first application to execution of a second application, and maintains a set mode when transition to execution of the second application is made and changes from one set mode to the other mode when a prescribed condition is satisfied.

Abstract: A product monitoring device is provided that presents, to the user, information by which the user can recognize specific work items of a product management work for improving an inappropriate display state. The product monitoring device acquires a captured image of a display area, sets a state monitoring area on the captured image of the display area, acquires product detection information indicating a position of a product in the state monitoring area, based on a captured image of the state monitoring area, evaluates a display state of the product in the state monitoring area, using a plurality of evaluation indices relating to display disorder of the product, based on the product detection information, and presents information on an evaluation result to a user.

Abstract: An example game system includes a main body apparatus and a game controller. The game controller has an analog stick, a memory storing correction parameter information including a first manufacturing process correction parameter value determined in a manufacturing process in connection with the analog stick, a first user correction parameter value determined in accordance with an operation by a user onto the analog stick, and a first model adjustment value corresponding to a model of the game controller, and a first control circuit transmitting the correction parameter information to the main body apparatus. The main body apparatus has a second control circuit which selects any of the first manufacturing process correction parameter value and the first user correction parameter value and performs game processing based on the selected correction parameter value, the first model adjustment value, and input data from the analog stick.

Abstract: To precisely specify lane regions that are present in an image. In a situation in which a lane specification device, an imaging device, and a swimming pool are present, a processor in the lane specification device according to the present disclosure specifies lane regions that are present in an image on the basis of a pattern in which information obtained on the basis of outlines of objects in the image captured by the imaging device appears in the image. In this manner, it is possible to precisely specify the lane regions that are present in the image.

Abstract: An example game system includes a main body apparatus and a game controller. The game controller has an analog stick, a memory storing correction parameter information including a first manufacturing process correction parameter value determined in a manufacturing process in connection with the analog stick, a first user correction parameter value determined in accordance with an operation by a user onto the analog stick, and a first model adjustment value corresponding to a model of the game controller, and a first control circuit transmitting the correction parameter information to the main body apparatus. The main body apparatus has a second control circuit which selects any of the first manufacturing process correction parameter value and the first user correction parameter value and performs game processing based on the selected correction parameter value, the first model adjustment value, and input data from the analog stick.

Abstract: An example game system includes a main body apparatus and a game controller. The game controller has an analog stick, a memory storing correction parameter information including a first manufacturing process correction parameter value determined in a manufacturing process in connection with the analog stick, a first user correction parameter value determined in accordance with an operation by a user onto the analog stick, and a first model adjustment value corresponding to a model of the game controller, and a first control circuit transmitting the correction parameter information to the main body apparatus. The main body apparatus has a second control circuit which selects any of the first manufacturing process correction parameter value and the first user correction parameter value and performs game processing based on the selected correction parameter value, the first model adjustment value, and input data from the analog stick.