Abstract: A relationship analysis device includes a parameter sample data calculation unit that calculates sample data for parameters for a simulator that receives inputs of data of a first type and outputs data of a second type, calculating sample data; a second type sample data acquisition unit that inputs, to the simulator, observation data and sample data, and obtains sample data of the second type; and a parameter value determination unit that calculates a weight for sample data based on the difference between observation data of the second type and the sample data of the second type, and based on the relationship between a first distribution that the observation data of the first type followed and a second distribution being a distribution of the data of the first type, and calculates a value for the parameters using the calculated weight.

Abstract: A rotary operating device includes a case, a rotating shaft member, an operation member, and a sensor. The case has a cavity having an annular shape with an opening at a top. The rotating shaft member is rotatable with respect to the case. The operation member rotates together with the rotating shaft member. The sensor is disposed within the cavity to detect rotation of the rotating shaft member. The case has an inner peripheral wall. The operation member has an inner cylindrical portion. The rotating shaft member has a peripheral wall that extends downward and along an outer peripheral surface of the inner peripheral wall. A first gap between the inner peripheral wall of the case and the peripheral wall of the rotating shaft member is smaller than a second gap between an inner peripheral surface of the rotating shaft member and the inner cylindrical portion of the operation member.

Abstract: A first sample acquisition unit acquires a parameter sample from a prior distribution. A function execution unit acquires data from a distribution by supplying the sample to a function. A degree-of-similarity calculation unit calculates the degree of similarity between the data and correct data using a kernel function. A kernel mean construction unit constructs a kernel mean of a posterior distribution from the degree of similarity, the sample, and the kernel function. A second sample acquisition unit acquires a new parameter sample from the kernel mean and the kernel function. A sample evaluation unit determines whether the difference between new data obtained by supplying one sample selected from the new samples to the function and the correct data is less than a prescribed threshold value. When it is determined that the difference is less than the prescribed threshold value, the sample evaluation unit estimates the selected sample as a parameter.

Abstract: A rotary operating device includes a case, a rotating shaft member, an operation member, and a sensor. The case has a cavity having an annular shape with an opening at a top. The rotating shaft member is rotatable with respect to the case. The operation member rotates together with the rotating shaft member. The sensor is disposed within the cavity to detect rotation of the rotating shaft member. The case has an inner peripheral wall. The operation member has an inner cylindrical portion. The rotating shaft member has a peripheral wall that extends downward and along an outer peripheral surface of the inner peripheral wall. A first gap between the inner peripheral wall of the case and the peripheral wall of the rotating shaft member is smaller than a second gap between an inner peripheral surface of the rotating shaft member and the inner cylindrical portion of the operation member.

Abstract: A model generation device includes: a model generation means for generating a second model indicating a relationship between a parameter included in a first model and a sample, the first model indicating a relationship between the sample and a label of the sample.

Abstract: A model generation device includes a model generation unit that generates a third model indicating a relationship between a first model and a parameter of a second model, the first model indicating a relationship between a sample and a label of the sample, the second model indicating the relationship and being different from the first model.

Abstract: An information processing apparatus includes: a corresponding data calculation unit configured to determine importance of each sample in accordance with a difference between a plurality of pieces of observation information observed when an input is given to an observation target and data of a second type generated by a simulator that simulates the observation target based on a sample of a parameter with respect to a plurality of samples and data of a first type indicating the input, and a degree of influence of the sample on distribution of parameters, and then calculate data that corresponds to the distribution of the parameters; a new parameter sample generation unit configured to generate a new sample of the parameters in accordance with predetermined processing using the data that corresponds to the distribution of the parameters; and an iteration control unit configured to perform control so as to repeat the above processing.

Abstract: Parameters are efficiently calculated. An information processing apparatus (1) includes a corresponding data calculation unit (2) configured to determine importance of each sample in accordance with a difference between a plurality of pieces of observation information observed when an input is given to an observation target and data of a second type generated by a simulator that simulates the observation target based on a sample of a parameter with respect to the plurality of samples and data of a first type indicating the input, and a contribution degree of each of the pieces of observation information in the plurality of pieces of observation information, and calculate data that corresponds to distribution of the parameters; and a new parameter sample generation unit (3) configured to generate a new sample of the parameters in accordance with predetermined processing using data that corresponds to distribution of the parameters.

Abstract: A relationship analysis device includes a parameter sample data calculation unit that calculates sample data for parameters for a simulator that receives inputs of data of a first type and outputs data of a second type, calculating sample data; a second type sample data acquisition unit that inputs, to the simulator, observation data and sample data, and obtains sample data of the second type; and a parameter value determination unit that calculates a weight for sample data based on the difference between observation data of the second type and the sample data of the second type, and based on the relationship between a first distribution that the observation data of the first type followed and a second distribution being a distribution of the data of the first type, and calculates a value for the parameters using the calculated weight.

Abstract: An analysis device includes a parameter sample data calculation unit that calculates a plurality of pieces of sample data for parameters for a simulator, based on a temporarily set distribution for the parameters, the simulator receiving inputs of data of a first type and outputting data of a second type; a second type sample data acquisition unit that inputs, to the simulator, target data of the first type indicating a target value for the data of the first type and sample data for the parameters and obtains sample data of the second type for each of the plurality of pieces of sample data for the parameters; and a parameter value calculation unit that calculates a weight for each of the plurality of pieces of sample data for the parameters based on the difference between target data of the second type indicating a target value for the data of the second type and the calculated sample data of the second type and based on the relationship between a first distribution followed by the target data of the first ty

Abstract: An analysis device includes a parameter sample data calculation unit that calculates a plurality of pieces of sample data for parameters for a simulator; a second type sample data acquisition unit that inputs, to the simulator, target data of the first type and each of the plurality of pieces of sample data for the parameters and obtains sample data of the second type for each of the plurality of pieces of sample data; and a parameter value calculation unit that calculates a weight for each of the plurality of pieces of sample data based on the difference between target data of the second type and the calculated sample data of the second type and calculates, using the calculated weight, a value for the parameters corresponding to the target data of the first type and the target data of the second type.

Abstract: A relationship analysis device includes a parameter sample data calculation unit that calculates a plurality of pieces of sample data for parameters for a simulator that receives inputs of data of a first type and outputs data of a second type, calculating the plurality of pieces of sample data; a second type sample data acquisition unit that inputs, to the simulator, observation data of the first type and a plurality of pieces of sample data, and obtains sample data of the second type for each of the plurality of pieces of sample data; and a parameter value determination unit that calculates a weight for each of the plurality of pieces of sample data based on the difference between observation data of the second type and the calculated sample data of the second type and calculates a value for the parameters using the calculated weight.

Abstract: A photoelectric conversion module 1 includes a photoelectric conversion element 20 which has a light receiving/emitting unit 25 to receive or emit light; an optical fiber 30 which has one end portion fixed to the photoelectric conversion element 20; and a light transmitting resin 41 which fixes the one end portion of the optical fiber 30 and the photoelectric conversion element 20, reflects light by a predetermined region 42 of a surface thereof, and optically couples a core 31 of the optical fiber 30 and the light receiving/emitting unit 25. An outer circumferential surface of a clad 32 at the one end portion of the optical fiber 30 contacts an element surface 21 from which the light receiving/emitting unit 25 is exposed at a position not overlapping a center of the light receiving/emitting unit 25 in the photoelectric conversion element 20.

Abstract: A first sample acquisition unit acquires a parameter sample from a prior distribution. A function execution unit acquires data from a distribution by supplying the sample to a function. A degree-of-similarity calculation unit calculates the degree of similarity between the data and correct data using a kernel function. A kernel mean construction unit constructs a kernel mean of a posterior distribution from the degree of similarity, the sample, and the kernel function. A second sample acquisition unit acquires a new parameter sample from the kernel mean and the kernel function. A sample evaluation unit determines whether the difference between new data obtained by supplying one sample selected from the new samples to the function and the correct data is less than a prescribed threshold value. When it is determined that the difference is less than the prescribed threshold value, the sample evaluation unit estimates the selected sample as a parameter.

Abstract: A spring contact to which a compressive load is to be imposed includes a base, a first elastic arm of a helical shape, a first contact, a second elastic arm of a helical shape, and a second contact. The first elastic arm includes a first fixed end supported on the base and a first end portion at a free end. The first contact is provided at the first end portion and protruding in a direction from which the load acts. The second elastic arm includes a second fixed end supported on the base and a second end portion at a free end. The second contact is provided at the second end portion. The second contact is placed independent of the first contact and protrudes in the direction from which the load acts.

Abstract: A spring contact to which a compressive load is to be imposed includes a base, a first elastic arm of a helical shape, a first contact, a second elastic arm of a helical shape, and a second contact. The first elastic arm includes a first fixed end supported on the base and a first end portion at a free end. The first contact is provided at the first end portion and protruding in a direction from which the load acts. The second elastic arm includes a second fixed end supported on the base and a second end portion at a free end. The second contact is provided at the second end portion. The second contact is placed independent of the first contact and protrudes in the direction from which the load acts.

Abstract: An interior body includes a spring portion, a movable portion, and a fixing portion, which are integrated together and formed by bending a first metal plate having a high modulus of elasticity. An exterior body is formed by bending a second metal plate having low electric resistance. A movable portion of the interior body includes a contact portion and elastic arms. Each of the elastic arms includes, at its tip portion, an elastically pressing portion elastically pressed against a tubular internal surface of the exterior body.

Abstract: An interior body is housed in a tubular exterior body. The interior body includes a spring portion, a movable portion, and a fixing portion, which are integrated together. Elastic arms are disposed on the movable portion so as to extend downward. Each elastic arm includes, at a lower end portion, an elastically pressing portion, which is elastically pressed against a tubular internal surface of the exterior body. Since the elastically pressing portion is elastically pressed against the exterior body, electric signals are more likely to flow between the movable portion and the exterior body and more likely to be prevented from leaking to the spring portion.

Abstract: An interior body includes a spring portion, a movable portion, and a fixing portion, which are integrated together and formed by bending a first metal plate having a high modulus of elasticity. An exterior body is formed by bending a second metal plate having low electric resistance. A movable portion of the interior body includes a contact portion and elastic arms. Each of the elastic arms includes, at its tip portion, an elastically pressing portion elastically pressed against a tubular internal surface of the exterior body.

Abstract: An interior body is housed in a tubular exterior body. The interior body includes a spring portion, a movable portion, and a fixing portion, which are integrated together. Elastic arms are disposed on the movable portion so as to extend downward. Each elastic arm includes, at a lower end portion, an elastically pressing portion, which is elastically pressed against a tubular internal surface of the exterior body. Since the elastically pressing portion is elastically pressed against the exterior body, electric signals are more likely to flow between the movable portion and the exterior body and more likely to be prevented from leaking to the spring portion.