Abstract: Provided is a lactase preparation having an excellent lactose decomposing action in milk. A lactase according to an aspect of the present invention has, as lactase activity, any one of the following activities (1) to (6) or a combination of two or more thereof: (1) when the lactase is added to cow's milk, an added amount of protein in the lactase at which a residual lactose concentration reaches 0.1% or less after 16 hours at 10° C. is 15.1 mg/L or less; (2) when the lactase is added to cow's milk, the added amount of protein in the lactase at which the residual lactose concentration reaches 0.01% or less after 16 hours at 10° C. is 30.2 mg/L or less; (3) when the lactase is added to cow's milk, the added amount of protein in the lactase at which the residual lactose concentration reaches 0.10% or less after 24 hours at 10° C. is 10.1 mg/L or less; (4) when the lactase is added to cow's milk, the added amount of protein in the lactase at which the residual lactose concentration reaches 0.

Abstract: A light source module includes a substrate having an upper surface; a light source disposed on the upper surface of the substrate; and an optical member including a plurality of light controllers and disposed above the substrate with the light source interposed therebetween. The light source includes a plurality of first light emitting parts and a plurality of second light emitting parts. The plurality of light controllers include a first light controller and a plurality of second light controllers. The first light controller overlaps one or more of the plurality of first light emitting parts in a top view. Each of the plurality of second light controllers overlaps a corresponding one of the plurality of second light emitting parts in the top view.

Abstract: A mold (1) according to an embodiment of the present invention is a mold which is formed by additive manufacturing. The mold includes: a heat medium channel (10) for a heat medium to flow through, the heat medium channel being provided inside the mold; a medium introduction port (4) at which the heat medium is to be introduced into the mold; a medium discharge port (5) at which the heat medium is to be discharged out of the mold; and a buffer layer (20) located between a mold surface (1a) and the heat medium channel. The buffer layer includes a low-melting percentage portion (21) having a lower melting percentage than does any portion inside the mold other than the buffer layer.

Abstract: Provided are a data obtaining method, an inverter, and a rotating electric machine capable of managing the operation state of a device without complicating the configuration thereof. Therefore, the data obtaining method uses an inverter for controlling a synchronous electric motor, wherein a position/speed calculation unit of the inverter calculates an electric angle of the synchronous electric motor from the value of the current flowing between the synchronous electric motor and the inverter and obtains data for each electric angle by sampling internal data within the inverter, said internal data being used for controlling the synchronous electric motor in synchronization with the information of the electric angle.

Abstract: A mold (1) according to an embodiment of the present invention is a mold which is formed by additive manufacturing. The mold includes: a heat medium channel (10) for a heat medium to flow through, the heat medium channel being provided inside the mold; a medium introduction port (4) at which the heat medium is to be introduced into the mold; a medium discharge port (5) at which the heat medium is to be discharged out of the mold; and a buffer layer (20) located between a mold surface (1a) and the heat medium channel. The buffer layer includes a low-melting percentage portion (21) having a lower melting percentage than does any portion inside the mold other than the buffer layer.

Abstract: Provided are a data obtaining method, an inverter, and a rotating electric machine capable of managing the operation state of a device without complicating the configuration thereof. Therefore, the data obtaining method uses an inverter for controlling a synchronous electric motor, wherein a position/speed calculation unit of the inverter calculates an electric angle of the synchronous electric motor from the value of the current flowing between the synchronous electric motor and the inverter and obtains data for each electric angle by sampling internal data within the inverter, said internal data being used for controlling the synchronous electric motor in synchronization with the information of the electric angle.

Abstract: Provided is a technique that makes it possible to collectively perform use of a coupon and settlement by a one-dimensional code or a two-dimensional code. There is provided an information processing method for receiving, from a first information processing device, a request for a one-time code for performing payment applied with a coupon, issuing, in response to the request, a first one-time code for performing the payment applied with the coupon, transmitting the issued first one-time code to the first information processing device, receiving a second one-time code and a payment amount from a third information processing device used by a user who receives payment from the user, and, when the received second one-time code is the same as the first one-time code, acquiring, from a database that manages privileges for each coupon, a privilege concerning the coupon used for the payment and settling, as a payment amount paid by the user, an amount calculated based on the acquired privilege and the payment amount.

Abstract: In a clip, first and second attachment portions are coupled by a coupling portion in an open state in which a seatback spring is able to pass between the first and second attachment portions in the radial direction of the seatback spring. The first and second attachment portions swing in mutually engaging directions. The first attachment portion is formed with a first placement portion, and the second attachment portion is formed with a second placement portion. The seatback spring can accordingly be placed between the coupling portion and either the first placement portion or the second placement portion. In this placed state, the seatback spring is retained in the clip by engaging an engagement claw of the first attachment portion with a peripheral edge portion of an engagement hole of the second attachment portion, enabling fixing to an attachment portion of a lower frame.

Abstract: Achieving a high fogging-removal performance with a defroster duct having a small width in the vehicle width direction. A vehicular defroster duct structure includes a defroster duct unit which includes a left defroster duct and a right defroster duct. The left defrost duct is curved leftward and the right defroster duct is curved rightward from the central line X in the vehicle width direction. At least one of the left and right defroster ducts includes a first guide surface and a second guide surface on an inner wall surface thereof close to the central line X. The first guide surface guides air-conditioning air toward a lower corner are of the windshield. The second guide surface guides the air-conditioning air toward a center upper part of the windshield.

Abstract: In a clip, first and second attachment portions are coupled by a coupling portion in an open state in which a seatback spring is able to pass between the first and second attachment portions in the radial direction of the seatback spring. The first and second attachment portions swing in mutually engaging directions. The first attachment portion is formed with a first placement portion, and the second attachment portion is formed with a second placement portion. The seatback spring can accordingly be placed between the coupling portion and either the first placement portion or the second placement portion. In this placed state, the seatback spring is retained in the clip by engaging an engagement claw of the first attachment portion with a peripheral edge portion of an engagement hole of the second attachment portion, enabling fixing to an attachment portion of a lower frame.

Abstract: A game apparatus has a touch panel for designating an arbitrary position within a screen on which a plurality of moving objects are arranged. A CPU repetitively detects the position designated via the touch panel, draws a line along the detected positions on the screen, every time that the detected position is in contact with any object within the screen, aligns the object on the line every time that the detected position is in contact with any object on the screen, moves the object aligned on the line to a trailing end direction of the line at a velocity V1 with the drawn line erasing from a leading end at a velocity V2 (>V1) and executes clearing processing in a case that an array of the objects on the line satisfies a matching condition with a goal condition array before the leading end of the line catches up with the object on the line.

Abstract: The present invention relates to a confidential information processing device, a confidential information processing apparatus, and a confidential information processing method, and particularly to a confidential information processing device which performs multiple cryptographic computation for different target data included in a data stream. With this configuration, the context control unit outputs the stream on which the cryptographic computation is performed to an external device or other stream analysis unit. Thus, by setting the number of cryptographic computation on a correspondence table, the number of computation can be set to any number. Thus, the confidential information processing device according to the present invention can perform any number of cryptographic computations on one stream. Furthermore, without outputting the stream whenever a cryptographic computation is completed, multiple cryptographic computations can be performed with one stream input.

Abstract: A game apparatus has a touch panel for designating an arbitrary position within a screen on which a plurality of moving objects are arranged. A CPU repetitively detects the position designated via the touch panel, draws a line along the detected positions on the screen, every time that the detected position is in contact with any object within the screen, aligns the object on the line every time that the detected position is in contact with any object on the screen, moves the object aligned on the line to a trailing end direction of the line at a velocity V1 with the drawn line erasing from a leading end at a velocity V2 (>V1) and executes clearing processing in a case that an array of the objects on the line satisfies a matching condition with a goal condition array before the leading end of the line catches up with the object on the line.

Abstract: The content decrypting apparatus 2000 of the present invention stores a chaining value generated during decryption of the last ciphertext block of a chunk in association with a content type and a frame number to an inter-chunk chaining value holding unit 216. When decrypting the first ciphertext block of a chunk, and in case where a chaining value is stored to the inter-chunk chaining value holding unit 216 in association with a content type and a frame number corresponding to the chunk, the content decrypting apparatus decrypts the first ciphertext block of the chunk using the chaining value. Hence, the content decrypting apparatus pertaining to the present invention is capable of correctly decrypting data streams having a data structure in which ciphertext chunks belonging to a first encrypted frame are disposed in between two ciphertext chunks belonging to a second encrypted frame.

Abstract: A fiber treatment agent contains components (a) and (b). A fiber treated with the fiber treatment agent and a fiber fabric including the fiber are also provided. The component (a) an insoluble egg-shell membrane fine powder with a mean particle size of 0.1 to 10 ?m while the component (b) is a synthetic resin emulsion or a synthetic resin solution.

Abstract: A vehicle wire harness portion (4) is disposed along a metallic vehicle body reinforcing member (3) installed in a vehicle body, and the vehicle wire harness portion (4) includes an integrated power supply wire portion (20) connected to an in-vehicle battery (6) so as to be capable of constantly applying a current and configured to be capable of applying a downstream load current, and a power distribution portion (21) connected to the integrated power supply wire portion (20).

Abstract: Defroster ducts (12R, 12L) includes a right defroster duct (12R) extending from a left side of a temperature control unit (11) toward a right side of a front window (FW) and a left defroster duct (12L) extending from a right side of the temperature control unit (11) toward a left side of the front window (FW). The right and left defroster ducts (12R, 12L) are arranged crossing each other.

Abstract: On a region of a ring-shaped continuous decorative portion 15 formed of tops and bottoms in cross-section, protruding portions 17 higher than the decorative portion 15 and having a predetermined surface area are provided. A joined portion of the decorative portion 15 and each protruding portion 17 or of the protruding portions is set higher than the bottoms of the decorative portion 15, and a rigidity difference between the protruding portions 17 and the decorative portion 15 is resolved, thus restricting an occurrence of a stress concentration.

Abstract: A modified fiber fabric obtainable by polymerizing a component (X) which is a water-soluble eggshell membrane powder, a component (A) which is a bifunctional monomer represented by the following formula (1), a component (B) which is a monomer containing any one of a hydroxyl group, carboxyl group, amino group, sulfonic acid group, and phosphoric acid group, and a component (C) which is a monomer containing at least one aziridine group, or a water-soluble polymer containing a polycarbodiimide group, polyethyleneimine group, or oxazoline group, on a fiber fabric, wherein R represents any one of and —CnH2n— (n is an integer of 1 to 6); Z is a hydrogen atom or a methyl group; a and b are integers where “a+b” is 0 to 50; x and y are integers where “x+y” is 0 to 30; and “a+b+x+y” is 10 or more.

Abstract: A frame input unit receives an input of a frame having a placement area for an element to which a predetermined signal is supplied. A netlist input unit receives an input of a netlist concerning the element. A placing unit places the element in the placement area of the frame input by the frame input unit based on the netlist input by the netlist input unit. A detecting unit detects whether there is a vacant position in the placement area in which the element is placed by the placing unit, and a bypass-element placing unit places a bypass element at the vacant position detected by the detecting unit, the bypass element propagating the predetermined signal by bypassing the element located adjacent to the vacant position.