Abstract: A sensor apparatus according to an embodiment of the present technology includes a substrate, one or more first IMU sensors, and one or more second IMU sensors. The substrate has a first surface and a second surface opposite to the first surface. The one or more first IMU sensors are arranged on the first surface. The one or more second IMU sensors are arranged on the second surface. By arranging the IMU sensors on both the first surface and the second surface, it is possible to reduce the size the apparatus and to suppress a deformation of the substrate due to heat. This makes it possible to realize a highly accurate measurement based on a detection result (sensing result) of a plurality of IMU sensors.

Abstract: An information processing device, an information processing method, and a program are provided. The information processing device includes a virtual object control unit that generates a control parameter that controls display of a first virtual object corresponding to a first real object and a second virtual object corresponding to a second real object on the basis of first posture information indicating a posture of the first real object and second posture information indicating a posture of the second real object, and a determination unit that makes a determination related to contact between the first virtual object and the second virtual object. The virtual object control unit generates the control parameter on the further basis of a result of the determination.

Abstract: [Problem] To enable implementation of flexible and highly accurate function control according to the properties of each of a plurality of sensors. [Solution] An information processing device is provided which includes an evaluation unit that, based on sensor information coming from a plurality of inertial sensors, performs relative evaluation of the sensor properties of the inertial sensors; and a control unit that, based on evaluation information generated by the evaluating unit, performs dynamic control related to the input-output of the sensor information. Moreover, an information processing method is provided that is implemented in a processor and that includes performing relative evaluation of the sensor properties of a plurality of inertial sensors based on sensor information coming from the inertial sensors; and performing dynamic control related to the input-output of the sensor information based on evaluation information that is generated.

Abstract: An information processing device, an information processing method, and a program are provided. The information processing device includes a virtual object control unit that generates a control parameter that controls display of a first virtual object corresponding to a first real object and a second virtual object corresponding to a second real object on the basis of first posture information indicating a posture of the first real object and second posture information indicating a posture of the second real object, and a determination unit that makes a determination related to contact between the first virtual object and the second virtual object. The virtual object control unit generates the control parameter on the further basis of a result of the determination.

Abstract: A rotation rate detecting apparatus that includes a rotation rate calculating unit configured to calculate a rotation rate of a pedal in a riding apparatus having the pedal rotating by pedaling operation of a user, based on sensor information of an acceleration sensor. The rotation rate calculating unit calculates a rotation rate based on information corresponding to acceleration in a traveling direction of the riding apparatus or a roll direction with respect to the traveling direction in association with movement of the user or the riding apparatus.

Abstract: There is provided a data processing apparatus including a first processor configured to acquire sensor data from at least one sensor, wherein the first processor provides the acquired sensor data and a cycle information to a second processor, and wherein the cycle information includes information indicating a sampling cycle corresponding to a timing at which the sensor data is acquired.

Abstract: Power consumption by an electronic device carried by a user is to be reduced. The electronic device includes a detection unit, a simplified analysis unit, and a detailed analysis unit. The detection unit detects the presence/absence of movement of the electronic device. A power control unit starts a supply of electric power when there is movement in the electronic device. The simplified analysis unit performs a simplified analysis process while consuming the electric power, the simplified analysis process being a process of analyzing the data obtained from the electronic device. In accordance with an analysis result of the simplified analysis process, the detailed analysis unit performs a detailed analysis process while consuming the electric power, the detailed analysis process being a different process from the simplified analysis process.

Abstract: A FIFO memory which reads data in response to a read request from a plurality of read units is realized with a simple configuration. When there is a data writing request to a first-in first-out data bolding unit provided with a plurality of entries in each of which data is held, a write pointer control unit writes data in the entry indicated by a write pointer out of a plurality of entries and updates the write pointer. Also, a read pointer control unit reads the data from the entry indicated by a read pointer corresponding to a read unit which requests data reading out of a plurality of read pointers associated with different read units and updates a corresponding read pointer.

Abstract: [Object] To provide a rotation rate detecting apparatus which can be realized with a small number of parts with saved power, a rotation rate detecting method and a program. [Solution] A rotation rate detecting apparatus includes a rotation rate calculating unit configured to calculate a rotation rate of a pedal in a riding apparatus having the pedal rotating by pedaling operation of a user, based on sensor information of an acceleration sensor. The rotation rate calculating unit calculates a rotation rate based on information corresponding to acceleration in a traveling direction of the riding apparatus or a roll direction with respect to the traveling direction in association with movement of the user or the riding apparatus.

Abstract: There is provided a data processing apparatus including a first processor configured to acquire sensor data from at least one sensor, wherein the first processor provides the acquired sensor data and a cycle information to a second processor, and wherein the cycle information includes information indicating a sampling cycle corresponding to a timing at which the sensor data is acquired.

Abstract: A navigation apparatus includes: a main unit to be attached to a mobile object through a base section, the main unit detecting a current position of the mobile object based on positioning information; a section that calculates acceleration applied to the mobile object based on the mobile object's speed; an acceleration sensor that observes acceleration applied to the main unit; a section that calculates an attachment inclination of the acceleration sensor with respect to the mobile object; a section that estimates, while the positioning information is not being supplied, a speed and position of the mobile object; a section that detects whether the main unit is mounted on the base section; and a section that forces the above section to stop estimating the speed when the main unit is not mounted on the base section.

Abstract: A navigation apparatus includes: a main unit to be attached to a mobile object through a base section, the main unit detecting a current position of the mobile object based on positioning information; a section that calculates acceleration applied to the mobile object based on the mobile object's speed; an acceleration sensor that observes acceleration applied to the main unit; a section that calculates an attachment inclination of the acceleration sensor with respect to the mobile object; a section that estimates, while the positioning information is not being supplied, a speed and position of the mobile object; a section that detects whether the main unit is mounted on the base section; and a section that forces the above section to stop estimating the speed when the main unit is not mounted on the base section.