Abstract:
A hit ball direction teaching apparatus includes a target direction acquisition section that acquires a target hit ball direction, an environmental information acquisition section that acquires environmental information, a processing section that obtains a delivery direction of a hit ball on the basis of the target hit ball direction and the environmental information, and generates notification data of the delivery direction, and a notification section (display) that performs a notification of the delivery direction on the basis of the notification data.
Abstract:
In a first optical measurement device, light which is output from a light source is subject to linear polarizing in a polarizing unit, and is input to a test object A. Transmitted light which has passed through the test object A is orthogonally separated in an orthogonal separation unit, and the light which is orthogonally separated in the orthogonal separation unit is received in two light receiving units. In addition, amount of light of the transmitted light is determined by a control unit, and a difference between received light levels which are received in the light receiving unit is normalized using the amount of light which is determined in a transmitted amount of light determination unit, and then the angle of optical rotation is calculated by the angle of optical rotation calculation unit.
Abstract:
In a first optical measurement device, light which is output from a light source is subject to linear polarizing in a polarizing unit, and is input to a test object A. Transmitted light which has passed through the test object A is orthogonally separated in an orthogonal separation unit, and the light which is orthogonally separated in the orthogonal separation. unit is received in two light receiving units. In addition, amount of light of the transmitted light is determined by a control unit, and a difference between received light levels which are received in the light receiving unit is normalized using the amount of light which is determined in a transmitted amount of light determination unit, and then the angle of optical rotation is calculated by the angle of optical rotation calculation unit.
Abstract:
An action information processing device includes: a biological sensor which acquires biological information; a motion sensor which acquires action information including a first action indicating a predetermined action and a second action executed before the start of the first action; an information acquisition unit which acquires the biological information and the action information; a mental information processing unit which estimates mental state information from the biological information; an action decision unit which calculates an action of a subject from the action information and decides whether the first action is success or failure, based on a predetermined decision condition; and an action advice output information unit which outputs action advice information about the second action, based on the mental state information about the second action and a result of the decision about the first action by the action decision unit.
Abstract:
A light measurement apparatus includes a polarizing optical element, an orthogonal separating section, a light reception section, a rotation control section and a polarization state measuring section. The polarizing optical element converts detection light to linearly polarized light. The orthogonal separating section orthogonally separates the linearly polarized light into orthogonally separated lights. The light reception section receives the orthogonally separated lights. The rotation control section rotates the polarizing optical element so that a rotation axis extends along an optical path of the detection light. The polarization state measuring section measures a polarization state of the detection light using intensities of the orthogonally separated lights.
Abstract:
A concentration measuring device, the measuring light in a wavelength region where an absorbance related to the water in the subject can be practically ignored is irradiated to the subject S by a light source. The transmitted light that was transmitted through the subject S is received in a light receiving part. An optical rotation calculation part calculates an optical rotation of the subject S by using an output signal from the light receiving part, and an absorbance calculation part calculates an absorbance of the subject S by using an output signal from the light receiving part. A concentration calculation part calculates a concentration of glucose by using a glucose measurement data related to an aqueous solution of simple glucose, a protein measurement data related to an aqueous solution of simple protein, the optical rotation calculated by the optical rotation calculation part, and the absorbance calculated by the absorbance calculation part.