Abstract: A client server includes: a storage that stores a distributed ledger; and a processor that performs a plurality of verification processes for one or more files and one or more confirmation times. In the distributed ledger, one or more file hash values and one or more time stamp tokens are stored in time series. The plurality of verification processes include a file verification process, a confirmation time verification process, and a sequence verification process. The file verification process is a process of verifying whether or not the one or more files have been tampered with. The confirmation time verification process is a process of verifying whether or not the one or more confirmation times have been tampered with. The sequence verification process is a process of verifying a sequence of the one or more files and the one or more confirmation times.

Abstract: A device includes: a storage storing a distributed ledger, the distributed ledger including a plurality of evidence chains and a time stamp chain, the plurality of evidence chains storing in chronological order at least one hash value, the time stamp chain storing in chronological order at least one time stamp token; and a processor configured to repeatedly execute an update process such that the time stamp chain is updated, the update process including a process for identifying, out of the evidence chains, at least one evidence chain in which the hash value has been changed with a change in the file since previous execution of the update process, and acquiring the time stamp token for a terminal value generated based on a terminal hash value of the at least one evidence chain.

Abstract: A computer according to the present disclosure includes a controller configured to acquire requests to exchange components of vehicles, acquire degree of deterioration of the components with which the vehicles are equipped, select a pair of vehicles whose components are to be exchanged based on the requests, and determine second parts to be exchanged in the pair among first parts composing the components based on the degree of deterioration.

Abstract: An information processing apparatus includes a controller configured to acquire an identifier of a vehicle upon receiving a request for customization of the vehicle, identify one or more parts with which the vehicle is already equipped by searching a vehicle database that stores data on parts with which a plurality of vehicles is equipped using the acquired identifier as a key, and determine a work item for the customization according to the one or more identified parts.

Abstract: In the present invention, an articulated arm is configured so that a plurality of arms are connected by rotatable joints, and by rotating the joints, the articulated arm can be extended and contracted. A detection unit detects the angle of rotation of the joints of the articulated arm, for different postures the number of which is at least the number of arms of the articulated arm. A calculation unit calculates the expansion amount of each of the plurality of arms on the basis of the angle of rotation of the joints at each of the postures detected by the detection unit.

Abstract: This substrate processing apparatus is provided with: a substrate placing portion on which a substrate is placed; one or more support portions configured to support the substrate and disposed at portions of the substrate placing portion that are brought into contact with the substrate, said one or more support portions being at least partially deformed by the contact with the substrate; a detector configured to detect deformation of the support portion; and a controller configured to specify a degree of the deformation of the substrate based on the detection result of the detector.

Abstract: A detection device according to one embodiment of the present disclosure includes an elastic member, a measuring part and a detection part. The elastic member is disposed between a first member and a second member at a bonding portion where the first member and the second member are bonded and the elastic member is configured to be elastically deformable. The measuring part is configured to measure electrical characteristics at multiple locations of the elastic member. The detecting part is configured to detect deformation of the elastic member based on the electrical characteristics measured at the multiple locations by the measuring part.

Abstract: There is an apparatus for transferring a member to be disposed in a substrate processing chamber between a substrate transfer chamber and the substrate processing chamber adjacent to each other, comprising: a valve body that is attached to and detached from an opening through which the substrate transfer chamber and the substrate processing chamber communicate and is configured to close the opening; a member holding part extending from the valve body into the substrate processing chamber when the opening is closed by the valve body, and configured to transfer the member to a preset arrangement position in the substrate processing chamber; and a moving mechanism configured to move the valve body separated from the opening in the substrate transfer chamber.

Abstract: An oil pump includes: a housing case made of a metal and having a rotor housing portion in which a rotor is rotatably housed, and a discharge hole through which oil within the rotor housing portion is introduced to the outside of the rotor housing portion by rotation of the rotor; and a housing made of a resin and having a case holding portion in which the rotor housing portion is held, and a discharge groove portion provided on a bottom portion of the case holding portion. The housing case has a fitting groove portion that is provided on a bottom portion of the rotor housing portion and that is fitted to the discharge groove portion so as to cover the discharge groove portion. The discharge hole is formed in the fitting groove portion.

Abstract: An apparatus for transferring a substrate to a substrate processing chamber. The apparatus comprises: a substrate transfer chamber having a floor and a side wall; a substrate transfer module comprising a holder and second magnets, and configured to be movable in the substrate transfer chamber by magnetic levitation; and a controller configured to control an operating force for moving the substrate transfer module. The controller comprises: a parameter storage configured to store at least one model parameter; a control schedule creating section configured to acquire identification information and a movement schedule, to obtain the operating force, and to output a control schedule; and a magnetic force adjusting section configured to perform feedforward control.

Abstract: An apparatus for transferring a substrate to a substrate processing chamber is provided. The apparatus comprises: a substrate transfer chamber having a floor provided with a first magnet and a sidewall connected to the substrate processing chamber and having an opening through which a substrate is loaded into and unloaded from the substrate processing chamber; a substrate transfer module including a substrate holder configured to hold the substrate and a second magnet having a repulsive force against the first magnet, and configured to move in the substrate transfer chamber by magnetic levitation using the repulsive force; and a heating device configured to heat the substrate transfer module to release contaminants adhered to a surface of the substrate transfer module.

Abstract: A substrate transfer method for transferring a substrate using a first transfer body and at least one second transfer body comprises transferring the substrate using the first transfer body to a predetermined first substrate reference position in a module, receiving the substrate at the first substrate reference position using the second transfer body, and transferring the substrate to a detection device by moving the second transfer body to a predetermined first transfer body reference position and detecting positional misalignment in plan view between a position of the substrate and a predetermined second substrate reference position in the detection device. Each of the first transfer body and the second transfer body floats from a bottom portion of a substrate transfer area by a magnetic force and moves in a horizontal direction while supporting the substrate.

Abstract: A learning data processing unit accepts, as input, a plurality of pieces of learning data for a respective plurality of tasks, and calculates, for each of the tasks, a batch size which meets a condition that a value obtained by dividing a data size of corresponding one of the pieces of learning data by the corresponding batch size is the same between the tasks. A batch sampling unit samples, for each of the tasks, samples from corresponding one of the pieces of learning data with the corresponding batch size calculated by the learning data processing unit. A learning unit updates a weight of a discriminator for each of the tasks, using the samples sampled by the batch sampling unit.

Abstract: A method includes: receiving a substrate on a first stage by a holder of a substrate transfer mechanism; causing the substrate to pass through a first measurement part, and measuring a first true deviation amount between the holder and the substrate at a first position; causing, when transferring the substrate toward a second stage, the substrate to pass through a second measurement part, and measuring a second true deviation amount between the holder and the substrate at a second position; reflecting a difference between the first and second true deviation amounts to a physical model to correct the physical model; calculating a position correction amount of the holder on the second stage from a thermal displacement amount of the holder at the second position; and controlling the substrate transfer mechanism based on the position correction amount to perform a position correction of the holder.

Abstract: A heat exchanger for a blood circulation circuit comprises a hollow fiber membrane layer having a plurality of hollow fiber membranes, and a fixing portion fixing both end portions of the hollow fiber membranes from outsides of the hollow fiber membranes. The fixing portion mainly contains polyurethane, and each of the hollow fiber membranes has a heat conductive layer containing high density polyethylene, and an adhesion layer provided on an outside of the heat conductive layer, bonded to the fixing portion, and mainly containing a modified polyolefin resin.

Abstract: A ranging device includes: a pulse generator; a controller that controls the pulse generator according to n (n is an integer greater than or equal to 4) types of packet generation codes indicating whether or not to expose or emit light in each of unit segments corresponding to distance segments into which a ranging range is divided; a light source; a solid-state image capturer; and a distance calculator that calculates the distance based on n types of signal values per unit segment obtained from the solid-state image capturer.

Abstract: A substrate transfer device that transfers a substrate, includes: a transfer arm including a substrate support and an arm; a cooler configured to distribute and supply a cooling fluid from a fluid supply source to each of cooling target regions of the arm; a measuring part configured to measure a temperature of each of the cooling target regions; and a controller. The controller is configured to: calculate a thermal index for each of the cooling target regions based on the amount of change of the temperature of the cooling target region measured by the measuring part from a reference temperature and a degree of influence of the temperature of the cooling target region affecting a movement accuracy of the substrate support; and determine a distribution ratio of the cooling fluid from the fluid supply source by the cooler based on the thermal index.

Abstract: A heat exchanger for a blood circulation circuit includes a hollow fiber membrane layer having a plurality of laminated hollow fiber membranes 31. Each of the hollow fiber membranes 31 has a barrier layer 5 having a hydrogen peroxide barrier property, and the barrier layer 5 has an oxygen permeability coefficient of 6 cc·cm/m2·24 h/atm or less at 25° C.

Abstract: An imaging unit, a control parameter generation unit, a control unit, and a drive unit are provided. The imaging unit captures an image including two objects. The control parameter generation unit feeds information of the captured image including the two objects into an input layer of a neural network, and outputs a position control amount for controlling the positional relation of between the two objects as an output layer of the neural network. The control unit controls current or voltage to control the positional relation between the two objects by using the outputted position control amount. The drive unit changes a position of one of the two objects by using the current or the voltage. Here, the control parameter generation unit selects the neural network from a plurality of neural networks. Therefore, even if there are differences between objects or errors in the positional relationship between the two objects, alignment can be performed more accurately.

Abstract: An element construction unit compares output values of one or more elements included in an intermediate layer calculated by an output value calculating unit with a threshold value, and the number of elements included in the intermediate layer is maintained when any of the output values out of the output values of the one or more elements included in the intermediate layer is greater than the threshold value, and the number of elements included in the intermediate layer is increased when all of the output values of the one or more elements included in the intermediate layer are equal to or less than the threshold value.