Omron Corporation

Nintendo Co., Ltd.

Shinya Nakagawa

Masao Shimizu

Shintaro Sato

Tsuyoshi Hamaguchi

Kenji Matsumoto

Hideyuki Nakao

Kenichi Handa

Takashi Kasai

Hajime Kano

Susumu Kamiyama

An example of an information processing system causes a player object to exit a game stage at least when the player object satisfies an exit condition as a result of an attack by an enemy object. After the player object exits from the game stage, (a) when a first condition is satisfied, the information processing system returns the player object based on a designated position that is specified by a return input of a first type, which is a position in a first area of the game stage, and (b) when a second condition different from the first condition is satisfied, the information processing system returns the player object based on a designated position that is specified by a return input of a second type, which is a position of a movement target object arranged on the game stage.

Storage medium, information processing system, information processing apparatus and information processing method

In an example of an information processing system, in a case where a user character is present on an area in a first state on a wall surface, and while an input to an operation button is continued, the user character is caused to perform a preliminary action, and if at least the input to the operation button ends, the user character is moved to a boundary between the area in the first state and another area on the wall surface. If the user character reaches the boundary, the user character is caused to jump from the boundary.

Non-transitory computer-readable storage medium, information processing apparatus, information processing system, and information processing method

It is possible to reduce a decrease in accuracy of measuring the concentration of a measurement target gas even in a case where, in a mixture of gases, there is a gas greatly different from another gas in a rate of change in thermal conductivity with respect to temperature. The concentration measurement device includes a sensor configured to measure the concentration of a measurement target gas in a mixture of gases on the basis of thermal conductivity of the measurement target gas, the mixture of gases including two or more components, and a heating unit configured to heat the mixture of gases so that the concentration of the measurement target gas can be uniquely determined with respect to the thermal conductivity.

Concentration measurement device

Non-transitory computer-readable storage medium having stored therein information processing program, information processing apparatus, information processing system, and information processing method

In an example of an information processing system, while a user character in a hidden state is moving in a first direction, and if an input to a jump button and a direction operation input for moving the user character in a second direction are provided, and if a velocity condition and a first direction condition are satisfied, the user character is caused to immediately change direction to the second direction and is also caused to jump. The velocity condition is satisfied while the user character is moving at high speed. The first direction condition is satisfied when the difference between the first direction and the second direction is great.

A first heat generator heats a mixture of fluids to a first temperature. A predetermined thermal property value of the mixture set to the first temperature is obtained, the first heat generator heats the mixture to a second temperature, the thermal property value of the mixture set to the second temperature is obtained. First relationship information between the thermal property value of the mixture set to the first temperature and a mixture ratio of a first fluid is obtained. Second relationship information between the thermal property value of the mixture set to the second temperature and the mixture ratio of the first fluid is obtained. Mixture ratios are calculated based on the thermal property value of the mixture set to the first temperature, the thermal property value of the mixture of fluids set to the second temperature, the first relationship information, and the second relationship information.

Mixture ratio calculation device

An internal temperature measuring apparatus includes a base and a MEMS device disposed on the base. The MEMS device includes a top face and a support. The top face includes a first thermopile configured to measure a first temperature difference used to calculate an internal temperature and a second thermopile configured to measure a second temperature difference used to calculate the internal temperature together with the first temperature difference. An orientation in which a cold junction of each thermocouple constituting the first thermopile is viewed from a hot junction coincides with an orientation in which a cold junction of each thermocouple constituting the second thermopile is viewed from a hot junction.

Internal temperature measuring apparatus and temperature difference measuring module

An internal temperature measuring apparatus includes: a sensor package in which a MEMS chip and a temperature sensor are disposed in a bottomed tubular package, the MEMS chip including one or a plurality of thermopiles each of which measures a heat flux passing through a region of a bottom of the bottomed tubular package, the temperature sensor measuring a reference temperature used as temperature of a predetermined portion of the MEMS chip; and a printed circuit board configured to calculate the internal temperature of the measurement object based on output of the sensor package. An outer bottom face of the sensor package projects from a plate face of the printed circuit board through a through-hole made in the printed circuit board.

Internal temperature measuring apparatus and sensor package

A temperature difference measuring apparatus includes: a bottomed tubular package in which a top face side is opened; a MEMS device disposed on an inner bottom face of the package, the MEMS device comprising at least one thermopile that measures a temperature difference, which is generated in the MEMS device by inflow heat through a bottom of the package; and a heat quantity increasing unit configured to increase a heat quantity flowing out from the MEMS device onto the top face side of the bottomed tubular package.

Temperature difference measuring apparatus

Provided is a sensor package that measures an internal temperature of a measurement object. A sensor package includes: a package including a bottomed tubular casing and plural leads substantially parallel to each other, each of the leads piercing the bottomed tubular casing; and a MEMS chip including at least one thermopile that measures a temperature difference in an identical direction. The MEMS chip is disposed in an inner bottom surface of the bottomed tubular casing of the package in a posture in which a measurement direction of the temperature difference measured with the thermopile is substantially orthogonal to a longitudinal direction of each lead.

Sensor package

Provided is an internal temperature measurement device capable of measuring an internal temperature of a measuring object for which the thermal resistance value of a non-heating body present on the surface side of the object is unknown, more accurately with better responsiveness than hitherto. The internal temperature measurement deviceincludes a MEMS chipincluding: two cellsfor measuring two heat fluxes for calculating an internal temperature of a measuring object for which the thermal resistance value of a non-heating body is unknown; and a cellfor increasing a difference between the heat fluxes.

Internal temperature measurement device

A method includes measuring a first temperature difference between first heat entry and discharge parts on a first heat transfer path extending from a portion of a surface of the object to the first heat discharge part using a first thermopile, and measuring a second temperature difference between a second heat entry and discharge parts on a second heat transfer path extending from another portion of the surface of the object to the second heat discharge part using a second thermopile, and measuring a reference temperature at a predetermined position on the first or second heat transfer path using a temperature sensor, and calculating the internal temperature of the object using the measured first and second temperature differences, and the reference temperature, and at least one predetermined value excluding a physical property value of a non-heating part of the object located at a surface side of the object.

Internal temperature measurement method and internal temperature measurement device

An internal temperature sensor includes substrates with one surface to be placed in contact with a measurement surface of an object to measure an internal temperature of the object, a heat flux sensor on another surface of the substrates, and a temperature sensor. The heat flux sensor is fabricated through a MEMS process and includes first and second temperature measurement parts, and a thin film including a thermopile to detect a temperature difference between the first and second temperature measurement parts. The thin film is supported by a thermally conductive member to form a space between the first temperature measurement part and the substrates and to extend parallel to the substrates. The thermally conductive member conducts heat traveling from the object through the substrates to the second temperature measurement part. The temperature sensor measures the temperature of a part of the substrates that is in contact with the thermally conductive member.

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Omihachiman, Japan

Shinya Nakagawa