Abstract: A water-stop structure of a wire includes a wire and a sealing member. The wire includes a covering portion configured to cover a plurality of element wires being twisted, and an element wire exposing portion in which the plurality of element wires being twisted are partially exposed from the covering portion. The sealing member seals the element wire exposing portion of the wire under a state in which the plurality of element wires in the element wire exposing portion of the wire are untwisted.

Abstract: A water-stop structure of a wire bundle includes a plurality of wires, a thermoplastic resin sheet being provided to be wound around the plurality of wires, and a heat shrinkable tube with which the thermoplastic resin sheet is covered. A gap between the plurality of wires is filled with the thermoplastic resin sheet being heated and softened.

Abstract: A water-proof structure for electric wire includes a pair of electric wires, a pair of first positioning members, and a molded body. The electric wires include core wire exposed parts each in which a core wire is exposed by peeling off an insulation sheath. The first positioning members hold the electric wires spaced from each other and position the electric wires in a height direction of the electric wires. The molded body is molded with resin such that the core wire exposed parts are sealed in a state where the electric wires are positioned by the first positioning members.

Abstract: A water-proof structure for electric wire includes an electric wire, a primary molded body, and a secondary molded body. The electric wire includes a core wire exposed part in which a core wire is exposed by peeling off an insulation sheath. The primary molded body is molded with resin and includes a groove portion for receiving therein an end portion of the electric wire including the core wire exposed part. The secondary molded body is molded with resin and covers the primary molded body in a state where the end portion of the electric wire is received in the groove portion.

Abstract: The various examples presented herein are directed to compounds of the formula A-L1-Het1-L2-Cy1 or a pharmaceutical acceptable salt, polymorph, prodrug, solvate or clathrate thereof, wherein: A is cycloalkyl, aryl, arylalkyl or heterocyclyl; Het1 is heterocyclyl containing at least two heteroatoms; Cy1 is a heterocyclyl; L1 is a bond, alkyl, alkenyl or alkynyl linker; L2 is an acyl or alkyl linker; and A and Cy1 are different. The compounds are useful in the treatment of fibrotic diseases, abnormal vascular leak and pathological angiogenesis.

Abstract: A printing apparatus includes a carriage mounted with a printing unit; a first motor configured to move the carriage in a predetermined direction; a second motor configured to move the carriage in the predetermined direction; and a control unit. The control unit executes a first mode in which, when causing the printing unit to perform printing under a first printing condition, the first motor is driven in a first direction and the second motor is driven in the first direction, and a second mode in which, when causing the printing unit to perform printing under a second printing condition different from the first printing condition, the first motor is driven in the first direction and the second motor is driven in the first direction while changing an output ratio between the first motor and the second motor.

Abstract: An endoscopic device generates an endoscopic image based on an image pickup signal generated by an image pickup device at a distal-end portion of an insertion portion, acquires channel information regarding a channel formed in the insertion portion, acquires angle information regarding a display angle of the endoscopic image, and generates and outputs a display image including a display endoscopic image generated based on modifying the endoscopic image based on the angle information, and a channel guide image generated based on the angle information and the channel information.

Abstract: Realized is a multilayer substrate and a multilayer substrate array, each of which has a high degree of freedom in a production method. At least part of an outer periphery (51) of a multilayer substrate (100), which includes a wiring provided on an inner layer, is processed so as to have a wave shape.

Abstract: A high gain of an antenna is achieved while suppressing interference of a radio wave from an RFIC. A plurality of serial-type radiation element rows 41 are arranged in parallel. A parallel feed line 45 branches from a feed terminal of an electronic component 11, and connects radiation elements 42, at ends of the serial-type radiation element row 41 farthest from the electronic component 11, to the feed terminal of the electronic component 11. All of the serial-type radiation element rows have an identical path length, along the parallel feed line 45, from each of the radiation elements 42 at the ends farthest from the electronic component 11 to the feed terminal of the electronic component 11. An amplifier 61 is connected to the parallel feed line on a halfway portion of the parallel feed line 45. The amplifier 61 amplifies a signal passing through the parallel feed line 45.

Abstract: An endoscope system includes an endoscope including at least one switch, each of which can be assigned two functions, and a controller. The controller sets a plurality of function pairs, each of which is composed of a combination of any one of a plurality of first functions and any one of a plurality of second functions, and assigns one function pair selected from the plurality of function pairs to the switch, measures a switch pressing time period after the switch is pressed, and executes the first function when the switch pressing is released before a predetermined first time period elapses after the switch is pressed and executes the second function when the switch pressing time period passes the first time period.

Abstract: A high gain of an antenna is achieved while suppressing interference of a radio wave from an RFIC. A plurality of serial-type radiation element rows 41 are arranged in parallel. A parallel feed line 45 branches from a feed terminal of an electronic component 11, and connects radiation elements 42, at ends of the serial-type radiation element row 41 farthest from the electronic component 11, to the feed terminal of the electronic component 11. All of the serial-type radiation element rows have an identical path length, along the parallel feed line 45, from each of the radiation elements 42 at the ends farthest from the electronic component 11 to the feed terminal of the electronic component 11. An amplifier 61 is connected to the parallel feed line on a halfway portion of the parallel feed line 45. The amplifier 61 amplifies a signal passing through the parallel feed line 45.

Abstract: A planar array antenna 20 includes: a dielectric substrate; a conductive ground layer 37 formed on one surface of the dielectric substrate; a plurality of serial-type radiation element rows 41 formed on another surface of the dielectric substrate; and a parallel feed line that is formed on the other surface of the dielectric substrate and supplies high-frequency electric power between a feed end point 45s on the other surface of the dielectric substrate and the serial-type radiation element rows 41. The parallel feed line 45 branches from the feed end point 45s to the radiation elements 42 at ends of the serial-type radiation element rows closest to the feed end point 45s, and connects the feed end point 45s to the radiation elements 42, and all of the serial-type radiation element rows 41 an identical path length from the feed end point 45s to each of the radiation elements 42.

Abstract: Realized is a multilayer substrate and a multilayer substrate array, each of which has a high degree of freedom in a production method. At least part of an outer periphery (51) of a multilayer substrate (100), which includes a wiring provided on an inner layer, is processed so as to have a wave shape.

Abstract: The present disclosure describes increasing a maximum angle of incidence and a maximum angle of output, of an optical element package, with respect to an optical element contained therein, the optical element being reflective. A sealing resin (5) is filled into a gap between an LCOS element (2) and a package housing (1). The sealing resin (5) covers side surfaces (2s) and a rear surface (2b) of the LCOS element (2).

Abstract: An optical device includes a window glass plate with which a window of a lid section is provided and which is connected to the lid section via a solder layer so that an internal space of the optical device is hermetically sealed. The solder layer has a void which is isolated from an external space and an internal space of the optical device.

Abstract: An optical device includes a housing part that includes an open window disposed inside the housing part, an optical element into which light enters via the window, and a window glass plate that blocks the window. The window glass plate includes a light-transmissive base material and a metal coating film provided on an outer peripheral part of the light-transmissive base material. The window glass plate is fixed to the housing part with a solder layer provided between the metal coating film and the housing part. The housing part includes an edge part located toward the window, and the edge part includes an overhanging part that protrudes further than an inner peripheral-side edge part of the metal coating film in a direction toward a center part of the window.

Abstract: An optical device includes a housing part that includes an open window disposed inside the housing part, an optical element into which light enters via the window, and a window glass plate that blocks the window. The window glass plate includes a light-transmissive base material and a metal coating film provided on an outer peripheral part of the light-transmissive base material. The window glass plate is fixed to the housing part with a solder layer provided between the metal coating film and the housing part. The housing part includes an edge part located toward the window, and the edge part includes an overhanging part that protrudes further than an inner peripheral-side edge part of the metal coating film in a direction toward a center part of the window.

Abstract: An endoscope system includes a memory configured to be able to store a parameter set which is a combination of parameters associated with various processes during an endoscope inspection and set for each user, the memory being able to store a number of parameter sets corresponding to a plurality of user accounts, a touch panel configured to selectively display a display screen made up of a plurality of layers and a control section configured to cause the touch panel to display a user setting selection list for calling the parameter set for each user stored in the memory for part of a display region of a main screen that classifies and displays functions with high use frequency during the endoscope inspection.

Abstract: The present disclosure describes increasing a maximum angle of incidence and a maximum angle of output, of an optical element package, with respect to an optical element contained therein, the optical element being reflective. A sealing resin (5) is filled into a gap between an LCOS element (2) and a package housing (1). The sealing resin (5) covers side surfaces (2s) and a rear surface (2b) of the LCOS element (2).

Abstract: An optical device includes a window glass plate with which a window of a lid section is provided and which is connected to the lid section via a solder layer so that an internal space of the optical device is hermetically sealed. The solder layer has a void which is isolated from an external space and an internal space of the optical device.