Abstract: Provided is a nonaqueous electrolyte solution for a lithium secondary battery, the nonaqueous electrolyte solution containing a compound (I) represented by Formula (I) and a compound (II) represented by Formula (II). In Formula (I), each of R1 and R2 independently represents a substituent such as an alkyl group having from 1 to 7 carbon atoms. In Formula (II), R3 represents an oxygen atom or the like; R4 represents a group represented by Formula (ii-1), a group represented by Formula (ii-2), or the like; and * represents a binding position. In Formula (ii-1), R41 represents an oxymethylene group or the like and, in Formula (ii-2), R42 represents an alkyl group having from 1 to 6 carbon atoms, or the like.

Abstract: An electrolyte solution capable of reducing the initial resistance of an electrochemical device, and an electrochemical device including the electrolyte solution. The electrolyte solution contains a compound represented by formula (I-1): wherein R111 to R113 are each individually a C1-C4 linear alkyl group, and wherein the compound (1-1) is present in an amount of 0.01-1000 mass ppm relative to the electrolyte solution.

Abstract: An electrolyte solution containing a compound (1) represented by the formula (1), (wherein R101 and R102 are each individually a substituent such as a C1-C7 alkyl group, and the substituent optionally contains at least one divalent to hexavalent hetero atom in a structure or optionally has a structure obtained by replacing at least one hydrogen atom by a fluorine atom or a C0-C7 functional group) and at least one compound (11) selected from compounds such as a compound represented by formula (11-1) (wherein R111 and R112 are the same as or different from each other and are each a hydrogen atom or the like, and R113 is an alkyl group free from a fluorine atom or the like):

Abstract: The method for manufacturing an additively manufactured object includes: forming a precursor having an opening portion that communicates with an internal space, by jetting a liquid binder onto a powder layer to form solidified layers and stacking the formed solidified layers; forming a plug configured to be assembled with the opening portion; removing unsolidified powder remaining in the internal space from the opening portion; applying the liquid binder to an outer peripheral wall of the plug after removing the unsolidified powder; assembling the plug with the opening portion such that the outer peripheral wall of the plug comes into contact with an inner peripheral wall of the opening portion; and sintering the precursor having the plug assembled with the opening portion.

Abstract: A method of manufacturing a mold includes the processes of: arranging a channel member in a recessed groove formed on a surface of a mold body; irradiating an opening part of the recessed groove with a first laser, thereby performing a first build-up welding on a part in the vicinity of the opening part of the recessed groove; and irradiating a region on a surface of the mold body including a region where the first build-up welding has been performed with a second laser, thereby performing a second build-up welding on a region on the surface of the mold body including the region where the first build-up welding has been performed.

Abstract: An information processing device according to the application concerned includes a generating unit and a providing unit. The generating unit generates a rating function for each node of a second-type graph which is generated from a first-type graph in which predetermined elements are treated as nodes and the relationships among the elements are treated as links, and which indicates a futuristic state of the first-type graph. The providing unit provides the information related to the second-type graph based on the rating function for the each node as generated by the generating unit.

Abstract: A method of manufacturing a mold includes the processes of: arranging a channel member in a recessed groove formed on a surface of a mold body; irradiating an opening part of the recessed groove with a first laser, thereby performing a first build-up welding on a part in the vicinity of the opening part of the recessed groove; and irradiating a region on a surface of the mold body including a region where the first build-up welding has been performed with a second laser, thereby performing a second build-up welding on a region on the surface of the mold body including the region where the first build-up welding has been performed.

Abstract: A vehicle body structure for fitting a pillar garnish and a fender panel is provided which surely prevents a space formed in the surface of a vehicle body from being viewed as black. The vehicle body structure includes a resin-made pillar garnish on a front surface side of a pillar of a vehicle body, a steel-made fender panel having an end on an end of the pillar garnish, and a seal member sealing a space between respective ends of the pillar garnish and the fender panel. The pillar garnish has an extending portion which extends in a direction from the end of the pillar garnish to the end of the fender panel. The fender panel has a flange which extends in a direction from the end of the fender panel to the end of the pillar garnish. The seal member is mounted on the extending portion and the flange.

Abstract: A vehicle body structure for fitting a pillar garnish and a fender panel is provided which surely prevents a space formed yin the surface of a vehicle body from being viewed as black. The vehicle body structure includes a resin-made pillar garnish on a front surface side of a pillar of a vehicle body, a steel-made fender panel having an end on an end of the pillar garnish, and a seal member sealing a space between respective ends of the pillar garnish and the fender panel. The pillar garnish has an extending portion which extends in a direction from the end of the pillar garnish to the end of the fender panel. The fender panel has a flange which extends in a direction from the end of the fender panel to the end of the pillar garnish. The seal member is mounted on the extending portion and the flange.

Abstract: The present invention has been made to provide a communication control apparatus, a communication control program, and a communication driver registration method allowing communication between an application supporting a predetermined connection method and a peripheral device supporting a different connection method from that of the application. An information processing apparatus 310 includes a pseudo VCOM port driver 371 that supplies a first handle that an application 153 running on the information processing apparatus 310 uses for communication with a peripheral device 230; and a pseudo PnP filter 371 that acquires a second handle used for operation of a VCOM port driver 261 when receiving notification indicating that the peripheral device 230 is connected to a USB interface 212 of the information processing apparatus 310 and, when receiving a request made using the first handle from the application 153, uses the second handle to send the request to the VCOM port driver 261.

Abstract: An apparatus 1 for testing mixed signal electronic devices (i.e., devices, such as LSI devices, whose input/output signals include direct current signals, digital signals and analog signals, where the time relationship between the various input and output signals may be either synchronous or asynchronous) includes a master clock subsystem (MCLK-SS) 11, a subsystem group comprised of a digital master subsystem (DM-SS) 12, a digital slave subsystem (DS-SS) 13, a waveform generator subsystem (WG-SS) 14, a waveform digitizer subsystem (WD-SS) 15, a time measuring module (TMM) 16, and a direct current subsystem (DC-SS) 17, and an interfacing test head 18. The MCLK-SS 11 receives a master clock from a timing generator 21 or DSP 23 of the device under test (DUT) 186 and generates a first master clock MCLK1 and a second master clock MCLK2, each of which is synchronized with the master clock from the DUT.