Abstract: The present disclosure promotes distribution of sensor data among a plurality of business operators. A controller that an information processing system according to the present disclosure includes collects first data including a plurality of items and personal information from mobile bodies belonging to a first business operator. The controller converts the first data to second data not being usable to identify individuals. The controller provides data in a range decided based on content of a predetermined data use contract, among the second data, to a second business operator. The controller calculates a consideration for the data that is to be paid by the second business operator, based on a data use record of the second business operator.

Abstract: A fan shroud and a blower device are provided. The fan shroud includes a shroud wall surface and a plurality of ventilation openings. The shroud wall surface extends around a fan along a radial direction orthogonal to a rotation axis. The plurality of ventilation openings are formed through the shroud wall surface in a thickness direction of the shroud wall surface to allow passing of wind generated by a fan motor. A width of a wall surface side opening on a downstream side of the wind in the ventilation opening is smaller than a width of a lateral wall side opening on an upstream side of the wind in the ventilation opening.

Abstract: A fan shroud and a blower device are provided. The fan shroud includes a shroud wall surface and a plurality of ventilation openings. The shroud wall surface extends around a fan along a radial direction orthogonal to a rotation axis. The plurality of ventilation openings are formed through the shroud wall surface in a thickness direction of the shroud wall surface to allow passing of wind generated by a fan motor. A width of a wall surface side opening on a downstream side of the wind in the ventilation opening is smaller than a width of a lateral wall side opening on an upstream side of the wind in the ventilation opening.

Abstract: A planar light source device has: a housing, a substrate, a plurality of light-emitting devices each having a light-emitting element and a light-beam control member; and a light diffusing member. The housing has: a bottom surface and two inclined surfaces. In the light distribution characteristics of a light-emitting device, a light ray with the largest angle relative to the optical axis in an angular range within which a luminous intensity equal to or more than 70% of the maximum luminous intensity is exhibited reaches the inclined surfaces. A first angle between the optical axis of the light-emitting element and a light ray having the maximum luminous intensity emitted from the light-emitting device is larger than a second angle between the optical axis of the light-emitting element and a straight line connecting the luminescence center of the light-emitting element to the opening-side end portion of the housing.

Abstract: A planar light source device has: a housing, a substrate, a plurality of light-emitting devices each having a light-emitting element and a light-beam control member; and a light diffusing member. The housing has: a bottom surface and two inclined surfaces. In the light distribution characteristics of a light-emitting device, a light ray with the largest angle relative to the optical axis in an angular range within which a luminous intensity equal to or more than 70% of the maximum luminous intensity is exhibited reaches the inclined surfaces. A first angle between the optical axis of the light-emitting element and a light ray having the maximum luminous intensity emitted from the light-emitting device is larger than a second angle between the optical axis of the light-emitting element and a straight line connecting the luminescence center of the light-emitting element to the opening-side end portion of the housing.

Abstract: A temperature of only a part in a surface of a mounting table can be set to be higher than or lower than a set temperature of an entire surface of the mounting table. A main flow path 320 formed within the mounting table 200 to be arranged over the entire surface thereof; an auxiliary flow path 330 formed within the mounting table to be arranged in a part of the surface thereof; and a temperature control medium circulating unit that supplies and circulates a temperature control medium adjusted to have a set temperature into and through the main flow path, allows the temperature control medium to be branched, and supplies and circulates the branched temperature control medium into and through the auxiliary flow path after adjusting a temperature of the branched temperature control medium to be a temperature higher than or lower than the set temperature are provided.

Abstract: A light-emitting element includes a rectangular light emitting element with four edge surfaces; and a light flux control member defining a central axis and having a back surface, light entry surface formed as a recess in the back surface, a light emission surface disposed opposite the back surface, and a plurality of protruding elements forming a grid on the back surface. The grid of protruding elements include a plurality of linear ridges/valleys such that the angles formed by such linear ridges/valley and a plane including at least one of the edge surfaces of the light emitting element is an acute angle; or the grid of protruding element include a plurality of annular ridges/valley centered about the central axis, and a plurality of linear ridges/valleys disposed radially around the central axis.

Abstract: This light-emitting device has a light-emitting element, whereof the shape in planar view is rectangular, for emitting light, and a light flux control member. The light flux control member has an entry surface, a back surface, and where grid-shaped protruding stripes comprising a plurality of protruding stripes disposed into a grid shape or grid-shaped recessed stripes comprising a plurality of recessed stripes disposed into a grid shape are formed; and an exit surface disposed on the surface facing away from the back surface, and where the light that has entered the entry surface is caused to exit. Of the angles formed by each of the four sides constituting the outer edges of the light-emitting element and a first virtual straight line that is parallel to the crest lines of the grid-shaped protruding stripes or the valley lines of the grid-shaped recessed stripes, the smaller angle is an acute angle.

Abstract: A plasma processing method of the present disclosure includes attaching a Si-containing material or a N-containing material to an electrostatic chuck that is provided in a processing container and attached with a reaction product containing C and F, in a state where a workpiece is not mounted on the electrostatic chuck; adsorbing the workpiece by the electrostatic chuck attached with the Si-containing material or the N-containing material when the workpiece is carried into the processing container; processing the workpiece with plasma; and separating the workpiece processed with plasma from the electrostatic chuck attached with the Si-containing material or the N-containing material.

Abstract: A plasma processing method of the present disclosure includes attaching a Si-containing material or a N-containing material to an electrostatic chuck that is provided in a processing container and attached with a reaction product containing C and F, in a state where a workpiece is not mounted on the electrostatic chuck; adsorbing the workpiece by the electrostatic chuck attached with the Si-containing material or the N-containing material when the workpiece is carried into the processing container; processing the workpiece with plasma; and separating the workpiece processed with plasma from the electrostatic chuck attached with the Si-containing material or the N-containing material.

Abstract: A temperature control system includes a heat transfer medium supply configured to supply a first heat transfer medium of a first temperature into a heat transfer medium path; at least one heat transfer medium storage provided between the heat transfer medium path and the heat transfer medium supply and configured to store a second heat transfer medium of a second temperature higher than the first temperature; a heat transfer medium supply control device provided between the heat transfer medium supply and the heat transfer medium path and between the heat transfer medium storage and the heat transfer medium path and configured to stop a supply of the first heat transfer medium into the heat transfer medium path from the heat transfer medium supply and to supply the second heat transfer medium into the heat transfer medium path from the heat transfer medium storage when a heating unit generates heat.

Abstract: A temperature of only a part in a surface of a mounting table can be set to be higher than or lower than a set temperature of an entire surface of the mounting table. A main flow path 320 formed within the mounting table 200 to be arranged over the entire surface thereof; an auxiliary flow path 330 formed within the mounting table to be arranged in a part of the surface thereof; and a temperature control medium circulating unit that supplies and circulates a temperature control medium adjusted to have a set temperature into and through the main flow path, allows the temperature control medium to be branched, and supplies and circulates the branched temperature control medium into and through the auxiliary flow path after adjusting a temperature of the branched temperature control medium to be a temperature higher than or lower than the set temperature are provided.

Abstract: A substrate processing system that enables foreign matter adhered to a rear surface or a periphery of a substrate to be completely removed. A substrate processing apparatus performs predetermined processing on the substrate. A substrate cleaning apparatus cleans the substrate at least one of before and after the predetermined processing. A jetting apparatus jets a cleaning substance in two phases of a gas phase and a liquid phase and a high-temperature gas towards the rear surface or the periphery of the substrate.

Abstract: A temperature control device for a target substrate includes a mounting table having temperature control members respectively provided in temperature systems to control temperatures of regions of the target substrate to respective predetermined temperature levels; circulation channels through which fluids passing through the temperature control members flow; and heating channels each for flowing therein a heated fluid having a higher temperature compared to the fluids circulating in the circulation channels. The device further includes cooling channels each for flowing therein a cooled fluid having a lower temperature compared to the fluids circulating in the circulation channels; and joining units that join the circulation channels to build the respective temperature control systems, the joining units having flow rate control units that controls flow rate ratios of the fluids supplied from the respective channels to the temperature control members.

Abstract: A temperature control system includes a heat transfer medium supply configured to supply a first heat transfer medium of a first temperature into a heat transfer medium path; at least one heat transfer medium storage provided between the heat transfer medium path and the heat transfer medium supply and configured to store a second heat transfer medium of a second temperature higher than the first temperature; a heat transfer medium supply control device provided between the heat transfer medium supply and the heat transfer medium path and between the heat transfer medium storage and the heat transfer medium path and configured to stop a supply of the first heat transfer medium into the heat transfer medium path from the heat transfer medium supply and to supply the second heat transfer medium into the heat transfer medium path from the heat transfer medium storage when a heating unit generates heat.

Abstract: A substrate processing apparatus includes a processing vessel; a mounting table for mounting the substrate thereon in the processing vessel; a gas inlet unit provided in the processing vessel; a gas supply mechanism for supplying a hydrogen-containing gas into the processing vessel through the gas inlet unit; a gas discharge port provided at the processing vessel; a gas exhaust mechanism for exhausting an inside of the processing vessel through the gas discharge port; a catalyst provided in the processing vessel; and a heating unit for heating the catalyst. Hydrogen radicals are formed in the processing vessel by a catalytic cracking reaction between the hydrogen-containing gas and the catalyst of high temperature, and the substrate is processed by the hydrogen radicals.

Abstract: A temperature control device for a target substrate includes a mounting table having temperature control members respectively provided in temperature systems to control temperatures of regions of the target substrate to respective predetermined temperature levels; circulation channels through which fluids passing through the temperature control members flow; and heating channels each for flowing therein a heated fluid having a higher temperature compared to the fluids circulating in the circulation channels. The device further includes cooling channels each for flowing therein a cooled fluid having a lower temperature compared to the fluids circulating in the circulation channels; and joining units that join the circulation channels to build the respective temperature control systems, the joining units having flow rate control units that controls flow rate ratios of the fluids supplied from the respective channels to the temperature control members.

Abstract: A cylinder stop position varying mechanism is employed in a cylinder having a piston and a shaft. The cylinder stop position varying mechanism includes a stopper fitted onto the shaft; a pair of limiters for stopping a reciprocating movement of the piston by contact with the stopper; and a limiter moving mechanism for varying positions of the limiters. The cylinder is driven by a hydraulic pressure, and the limiter moving mechanism is provided to each of the pair of limiters to control positions of the limiters independently.

Abstract: A temperature control device controls the temperature of a controlled object by circulating a fluid in a temperature adjustment unit arranged near the controlled object. The temperature control device comprises a heating pathway that heats and circulates the fluid in the temperature adjustment unit, a cooling pathway that cools and circulates the fluid in the temperature adjustment unit, a bypass pathway that does not pass the fluid through the heating pathway and cooling pathway, but circulates the fluid in the temperature adjustment unit, and adjustment means that adjust a flow ratio of the fluid that is supplied from the heating pathway, cooling pathway, and bypass pathway to the temperature adjustment unit via a confluence unit that combines these flows. The adjustment means are provided on a downstream side of each of the heating pathway, the cooling pathway, and the bypass pathway and on the upstream side of the confluence unit.