Embodiments provided herein measure metrics of an athletic action and an object associated therewith, and more particularly, to measuring the metrics and characteristics of a baseball during the wind-up, release, flight, and catch of a pitch sequence. Methods may include: receiving, from at least one motion sensor associated with an object, acceleration data and angular velocity data of the object in response to an athletic action performed on the object; processing the acceleration data to establish vector rotation data between a frame of reference of the object and an Earth frame of reference; applying the vector rotation data to the acceleration data to obtain acceleration of the object in the Earth frame of reference; applying the vector rotation data to the angular velocity data to obtain angular velocity of the object in the Earth frame of reference.

Embodiments provided herein measure metrics of an athletic action and an object associated therewith, and more particularly, to measuring the metrics and characteristics of a baseball during the wind-up, release, flight, and catch of a pitch sequence. Methods may include: receiving, from at least one motion sensor associated with an object, acceleration data and angular velocity data of the object in response to an athletic action performed on the object; processing the acceleration data to establish vector rotation data between a frame of reference of the object and an Earth frame of reference; applying the vector rotation data to the acceleration data to obtain acceleration of the object in the Earth frame of reference; applying the vector rotation data to the angular velocity data to obtain angular velocity of the object in the Earth frame of reference.

An MEMS device includes a package (1), a bottom plate (2), and a first inertial component (3). The first inertial component (3) is located in packaging space (4) formed by the bottom plate (2) and the package (1). There is a first alignment part (21) on a surface that is of the bottom plate (2) and that faces the packaging space (4), and the first inertial component (3) has a first mounting part (31). A shape of the first mounting part (31) matches a shape of the first alignment part (21). The MEMS device is equipped with a mounting alignment reference, the first mounting part (31) is connected to the first alignment part (21), and the first inertial component is mounted on the bottom plate at a preset angle. In addition, a bottom part of the first inertial component is not directly connected to the bottom plate.

An embodiment comprises and apparatus having an image capture device with an image axis and a gyroscope operable to indicate the orientation of the image axis. An embodiment of a capsule endoscopy system comprises an imaging capsule and an external unit. The imaging capsule may comprise an image capture device having an image axis and a gyroscope operable to indicate the orientation of the image axis. The external unit may comprise a gyroscope operable to indicate an orientation of a subject and a harness wearable by a subject and operable to align the gyroscope with the subject. The imaging capsule may send and image to an external unit for processing and display, and the external unit may provide for calculation of the image-axis orientation relative to the body.

An embodiment comprises and apparatus having an image capture device with an image axis and a gyroscope operable to indicate the orientation of the image axis. An embodiment of a capsule endoscopy system comprises an imaging capsule and an external unit. The imaging capsule may comprise an image capture device having an image axis and a gyroscope operable to indicate the orientation of the image axis. The external unit may comprise a gyroscope operable to indicate an orientation of a subject and a harness wearable by a subject and operable to align the gyroscope with the subject. The imaging capsule may send and image to an external unit for processing and display, and the external unit may provide for calculation of the image-axis orientation relative to the body.

The Mini 3D orientation sensor device has convex spherical body structure in a mechanical sensor coupled to logic to manage the reverse touchscreen component, alarm and other functions for the sensor. The spherical housing sensor is comprises a plurality of layers analogous to a touchscreen complete with conducting probes, an unconstrained surface compressing ball dynamic inside the spherical grid position structure that closes a electric circuit upon depressing the inside surface of the sphere housing. The sphere depressed coordinates are mapped to its 3D orientation upon output.

The Mini 3D orientation sensor device has convex spherical body structure in a mechanical sensor coupled to logic to manage the reverse touchscreen component, alarm and other functions for the sensor. The spherical housing sensor is comprises a plurality of layers analogous to a touchscreen complete with conducting probes, an unconstrained surface compressing ball dynamic inside the spherical grid position structure that closes a electric circuit upon depressing the inside surface of the sphere housing. The sphere depressed coordinates are mapped to its 3D orientation upon output.

In a method for driving stabilization of a motorized two-wheeled vehicle, in which two gyroscopes situated side-by-side are present having axes of rotation in parallel to each other, the gyroscopes each being tiltable about a tilting axis perpendicular to the axis of rotation, and the tilting axes of the two gyroscopes also being parallel to each other, the gyroscopes rotating about their axes of rotation in directions of rotation opposite to each other, and in the case of a detected unstable driving behavior of the two-wheeled vehicle, the two rotating gyroscopes are tilted about their respective tilting axis at a first angular velocity, the tilting directions being counter to each other; and the two gyroscopes are subsequently tilted back again at a second angular velocity about their respective tilting axis into their original orientation.

The present invention relates to an electronic range estimator for accurately measuring the distance/range of the remote object that is seen through the smart weapon scope device. The distance/range of the remote object is measured based on the vertical height of the remote object and the orientation angles measured for the remote object. Further, the electronic range estimator computes the distance/range of the remote object based on the vertical height of the remote object and the orientation angles measured for the remote object.

The present invention relates to an electronic range estimator for accurately measuring the distance/range of the remote object that is seen through the smart weapon scope device. The distance/range of the remote object is measured based on the vertical height of the remote object and the orientation angles measured for the remote object. Further, the electronic range estimator computes the distance/range of the remote object based on the vertical height of the remote object and the orientation angles measured for the remote object.