Abstract: In a method for producing hydrogen and carboxylic acid, a primary alcohol of 1 to 7 carbon atoms and water are reacted by being continuously introduced into a flow reactor packed with a solid catalyst consisting of an alloy of ruthenium and tin on a support and passed through the reactor under temperature and pressure conditions at which the water assumes a gaseous state. This method enables hydrogen and carboxylic acid to be produced in a high yield or at a high purity from a primary alcohol and water in a short time and by simple operations.

Abstract: An object is to provide a communication system in which there are no restrictions on a communicable area and it is not necessary to install communication software on a wireless device. A communication system according to the present invention is configured so that the functions of a wireless access point are separated into a front-end unit on a wireless terminal side and a back-end side on the Internet side, radio signal processing functions supporting a wireless scheme of the wireless terminal are deployed only on the back end, and only relatively simple processing functions such as E/O conversion are deployed on the front end near the wireless terminal 311.

Abstract: A transfer system includes a robot that loads and unloads a substrate to and from a cassette that accommodates a plurality of substrates in multiple stages; and a controller configured to control an operation of the robot. The robot includes: a hand that transfers the substrate, a horizontal movement mechanism that moves the hand in a width direction of the cassette in a front side of the cassette, and a lift mechanism that moves up and down the hand in the front side of the cassette. The hand includes a reflective sensor on a distal end side thereof facing the cassette to detect an object in the cassette. The controller operates the horizontal movement mechanism causing the reflective sensor to perform a horizontal scanning such that the reflective sensor facing the substrate scans in the width direction of the substrate accommodated in the cassette.

Abstract: The disclosed technique provides a message communication method comprising: receiving, from a client providing a message delivery service to a user of the client, an address of the user and a message to be transmitted to the address, the address being a phone number of the user or an address equivalent to the phone number; searching a database by using the address and outputting a first search result; associating the address with an opt-in status and storing the address in the database in a case where the first search result indicates that there was no hit for the address; controlling transmission of the message in such a manner as to inhibit the transmission of the message to the address in a case where the first search result indicates that the address has an opt-out status, and to transmit the message to the address in a case where the first search result indicates that the address has an opt-in status or that there was no hit for the address.

Abstract: A transfer system includes a hand that supports a workpiece to be transported; an arm that moves the hand; a scanning controller that moves the hand by the arm along a scanning direction that intersects sides which are provided to be fixed to the hand and not parallel with each other, such that the sides pass a known reference position in a transfer path of the workpiece; and a position detector that detects a positional deviation of the hand in a direction intersecting the scanning direction, based on a timing at which one of the side reaches the reference position and a timing at which the other side reaches the reference position RP, while the scanning controller is moving the hand.

Abstract: A transfer system includes a hand that supports a workpiece to be transported; an arm that moves the hand; a scanning controller that moves the hand by the arm along a scanning direction that intersects sides which are provided to be fixed to the hand and not parallel with each other, such that the sides pass a known reference position in a transfer path of the workpiece; and a position detector that detects a positional deviation of the hand in a direction intersecting the scanning direction, based on a timing at which one of the side reaches the reference position and a timing at which the other side reaches the reference position RP, while the scanning controller is moving the hand.

Abstract: A robot system includes a robot including a first hand, a second hand, an arm mechanism, and an elevator. The first hand is to hold a substrate. The second hand is to hold the substrate. The arm mechanism supports the first hand and the second hand to provide a height difference between the first hand and the second hand in a height direction of the robot. The elevator is to move the arm mechanism in the height direction within a moving range larger than the height difference. Both the first hand and the second hand put the substrate in the holder. Circuitry is configured to control the robot to move the arm mechanism in the height direction by the elevator to pass the substrate from the first hand to the second hand via the holder.

Abstract: A robot system includes: a robotic hand configured to load and unload a workpiece into and from a cassette in which a plurality of workpieces are aligned in a first direction; a sensor configured to detect the workpiece; a transporter configured to change a relative position of the sensor with respect to the cassette in the first direction and in a second direction; and circuitry configured to: control the transporter to arrange the sensor at a first position; command the sensor to scan in the first direction, to acquire first mapping data; control the transporter to arrange the sensor at a second position by changing the relative position of the sensor in the second direction; command the sensor to scan in the first direction, to acquire second mapping data; and determine that one or more of the workpieces are inclined based on the first and second mapping data.

Abstract: Provided is a makeup cosmetic which has a good feeling of use, without showing tautness or stiffness as in the case of using a silicone-based resin film or an offensive odor as in the case of using polyisoprene, and exhibits a good effect of preventing color migration. This makeup cosmetic is characterized by comprising polyisobutylene having a relative mass of 30,000-100,000 and a volatile hydrocarbon oil. Also provided are a top coating agent, which can be appropriately applied on the aforesaid makeup cosmetic, imparts glossiness and shows little color migration or blurring, a makeup kit comprising the aforesaid makeup cosmetic and the top coating agent, and a makeup method using the makeup kit.

Abstract: A robot system includes a robot including a robot arm, and a first hand and a second hand which are connected to the robot arm and which are provided to independently rotate about an axis on the robot arm; and a controller configured to control an operation of the robot. When the robot arm and the first hand are operated so that the first hand reaches a predetermined target position, teaching values for the first hand in the target position is generated. When the first hand and the second hand are rotated based on the teaching values for the first hand, a relative error in rotation amount around the axis between the first hand and the second hand is acquired and stored in a memory. Teaching values for the second hand is generated from the teaching values for the first hand based on the acquired relative error.

Abstract: A production method comprising: adding a hydroxycarboxylic acid to an aqueous solution containing a Ce salt, a Zr salt, an Al salt, and at least one selected from a La salt, an Mg salt, and a Ca salt, to produce a gel, heating the gel to obtain a solid product by decomposition of the salts, firing the solid product to obtain a fired product containing a ceria-zirconia-based regular array phase precursor and an aluminate-based composite oxide precursor, performing a reducing heat treatment of the fired product to obtain a first composite having mutually dispersed therein a pyrochlore phase and an aluminate-based composite oxide, and performing an oxidizing heat treatment of the first composite to obtain a second composite in which at least part of the pyrochlore phase is transformed into a ? phase; and an oxygen storage material having mutually dispersed therein the composite oxide and the regular array phase.

Abstract: A robot system includes: a robotic hand configured to load and unload a workpiece into and from a cassette in which a plurality of workpieces are aligned in a first direction; a sensor configured to detect the workpiece; a transporter configured to change a relative position of the sensor with respect to the cassette in the first direction and in a second direction; and circuitry configured to: control the transporter to arrange the sensor at a first position; command the sensor to scan in the first direction, to acquire first mapping data; control the transporter to arrange the sensor at a second position by changing the relative position of the sensor in the second direction; command the sensor to scan in the first direction, to acquire second mapping data; and determine that one or more of the workpieces are inclined based on the first and second mapping data.

Abstract: A transfer system includes a robot including a hand configured to transfer a substrate, a transfer chamber within which the robot is disposed, a plurality of substrate-storing cassettes disposed side by side on a sidewall of the transfer chamber in a plan view, and a robot control device configured to control an operation of the robot based on teaching information. The robot control device includes an operation controller configured to cause the robot to transfer the substrate to a storage position while slanting a hand centerline toward the robot away from a storage centerline with respect to a first cassette and while superimposing the hand centerline on the storage centerline with respect to a second cassette.

Abstract: A satisfactory oxygen storage material and a method for producing it are provided. The oxygen storage material comprises zirconia particles with a ceria-zirconia complex oxide supported on the zirconia particles. The ceria-zirconia complex oxide includes a pyrochlore phase and has a mean crystallite diameter of 10 nm to 22.9 nm.

Abstract: A robot system includes a robot including a first hand, a second hand, an arm mechanism, and an elevator. The first hand is to hold a substrate. The second hand is to hold the substrate. The arm mechanism supports the first hand and the second hand to provide a height difference between the first hand and the second hand in a height direction of the robot. The elevator is to move the arm mechanism in the height direction within a moving range larger than the height difference. Both the first hand and the second hand put the substrate in the holder. Circuitry is configured to control the robot to move the arm mechanism in the height direction by the elevator to pass the substrate from the first hand to the second hand via the holder.

Abstract: A production method comprising: adding a hydroxycarboxylic acid to an aqueous solution containing a Ce salt, a Zr salt, an Al salt, and at least one selected from a La salt, an Mg salt, and a Ca salt, to produce a gel, heating the gel to obtain a solid product by decomposition of the salts, firing the solid product to obtain a fired product containing a ceria-zirconia-based regular array phase precursor and an aluminate-based composite oxide precursor, performing a reducing heat treatment of the fired product to obtain a first composite having mutually dispersed therein a pyrochlore phase and an aluminate-based composite oxide, and performing an oxidizing heat treatment of the first composite to obtain a second composite in which at least part of the pyrochlore phase is transformed into a ? phase; and an oxygen storage material having mutually dispersed therein the composite oxide and the regular array phase.

Abstract: A transfer system includes a robot including a hand configured to transfer a substrate, a transfer chamber within which the robot is disposed, a plurality of substrate-storing cassettes disposed side by side on a sidewall of the transfer chamber in a plan view, and a robot control device configured to control an operation of the robot based on teaching information. The robot control device includes an operation controller configured to cause the robot to transfer the substrate to a storage position while slanting a hand centerline toward the robot away from a storage centerline with respect to a first cassette and while superimposing the hand centerline on the storage centerline with respect to a second cassette.

Abstract: An auxiliary tunneling apparatus includes a reaction force receiver and first and second split components. In the excavation of a second tunnel by a boring machine, the reaction force receiver forms a replacement face of a side wall of the second tunnel on a first tunnel side where the first and second tunnels intersect each other, and a gripper of the boring machine pushes against the replacement face. The first and second split components are installed to push against the side wall of the first tunnel, support the reaction force receiver within the first tunnel, and move back and forth with respect to the side wall of the first tunnel.

Abstract: An electronic device (10) is capable of operating in water. The electronic device (10) has communication means (120), water detection means (35), and control means (100). The communication means (120) receives a radio wave. The water detection means (35) detects whether the electronic device (10) is immersed in water or not. The control means (100) makes the water detection means (35) operate in the case where intensity of a reception signal of the radio wave received by the communication means (120) is lower than a threshold level.

Abstract: This tunnel excavation method includes a step of excavating three first tunnels that are substantially parallel to each other in a first excavation step. Second tunnels are excavated that intersect the first tunnels in a second excavation step. A boring machine is used that performs excavation in a state in which a gripper pushes against the side wall of the tunnel.