Abstract: An electric motor that can facilitate a process of manufacturing the electric motor. The electric motor includes a substrate mounted with an electronic component, a first connector provided on a stator, the first connector configured to receive a power signal input to a coil and a communication signal with the electronic component, and a wiring structure communicably connecting the electronic component and the first connector. The wiring structure has a second connector mounted on the substrate, and a third connector fixed to the stator, the third connector configured to be connected to the second connector and configured to attach the substrate to the stator by an operation of moving the substrate toward the stator.

Abstract: A mounting structure of a rotating member of an encoder for detecting a phase angle of a magnet provided on a rotor of a motor includes: a rotating shaft configured to be rotated by driving of the motor; the rotating member on which a phase angle detection pattern configured to detect the phase angle is formed; and a boss attached to the rotating member and configured to mount the rotating member to an end of the rotating shaft. In this configuration, the end of the rotating shaft and the boss are provided with a first positioning structure configured to position a mounting position of the boss relative to the rotating shaft about the axis of the rotating shaft.

Abstract: A mounting structure of a rotating member of an encoder for detecting a phase angle of a magnet provided on a rotor of a motor includes: a rotating shaft configured to be rotated by driving of the motor; the rotating member on which a phase angle detection pattern configured to detect the phase angle is formed; and a boss attached to the rotating member and configured to mount the rotating member to an end of the rotating shaft. In this configuration, the end of the rotating shaft and the boss are provided with a first positioning structure configured to position a mounting position of the boss relative to the rotating shaft about the axis of the rotating shaft.

Abstract: A motor includes a sheet-like gasket for sealing the gap between a stator core and an encoder. The gasket has a structure including a metal plate and a sealing member covering the metal plate, and the gasket includes a first portion that is disposed at least between the end face on one end side of the stator core and the encoder and a second portion that has a structure including the sealing member with no metal plate and extends inward from the first portion to contact the projection.

Abstract: An electric motor that can facilitate a process of manufacturing the electric motor. The electric motor includes a substrate mounted with an electronic component, a first connector provided on a stator, the first connector configured to receive a power signal input to a coil and a communication signal with the electronic component, and a wiring structure communicably connecting the electronic component and the first connector. The wiring structure has a second connector mounted on the substrate, and a third connector fixed to the stator, the third connector configured to be connected to the second connector and configured to attach the substrate to the stator by an operation of moving the substrate toward the stator.

Abstract: A motor includes a sheet-like gasket for sealing the gap between a stator core and an encoder. The gasket has a structure including a metal plate and a sealing member covering the metal plate, and the gasket includes a first portion that is disposed at least between the end face on one end side of the stator core and the encoder and a second portion that has a structure including the sealing member with no metal plate and extends inward from the first portion to contact the projection.

Abstract: A mounting structure of a rotating member of an encoder for detecting a phase angle of a magnet provided on a rotor of a motor includes: a rotating shaft configured to be rotated by driving of the motor; the rotating member on which a phase angle detection pattern configured to detect the phase angle is formed; and a boss attached to the rotating member and configured to mount the rotating member to an end of the rotating shaft. In this configuration, the end of the rotating shaft and the boss are provided with a first positioning structure configured to position a mounting position of the boss relative to the rotating shaft about the axis of the rotating shaft.

Abstract: An encoder includes: a disk having a pattern of slits arranged in one direction; a light emitting element for emitting light toward the pattern of the disk; a plurality of light receiving elements arranged in the direction in which the slits are arranged and configured to receive the light emitted from the light emitting element, by way of the slits; and an optical element configured to magnify an image formed by the light which is emitted by the light emitting element and then reaches the optical element by way of the slits and to transmit the magnified image toward the light receiving elements, the optical element having a magnification ratio that is set so as to magnify the formed image at least in the direction in which the light receiving elements are arranged, depending on the pitch of the slits and the pitch of the light receiving elements.

Abstract: An encoder includes: a disk having a pattern of slits arranged in one direction; a light emitting element for emitting light toward the pattern of the disk; multiple first light receiving elements for receiving the light emitted from the light emitting element, by way of the slits and outputting a signal according to the amount of the received light; and multiple second light receiving elements for receiving the light emitted from the light emitting element, by way of the slits, at a phase different from a phase at which the first light receiving elements receive the light, and outputting a signal according to an amount of the received light. In this configuration, a first region in which the multiple first light receiving elements are arranged and a second region in which the multiple second light receiving elements are arranged are provided so as to be separated from each other.

Abstract: In an encoder device, a first gear is made of a transparent resin allowing transmission of light and includes: a detection target on which an optical pattern for detecting the absolute rotation angle within one rotation is formed, and a plurality of teeth formed on the outer periphery of the detection target. A first sensor includes a light emitter configured to emit light toward the detection target and a light receiver configured to receive the light transmitted through the detection target.

Abstract: A rotary encoder having a waterproof function includes a cover formed of a light transmissive resin; a housing to which the cover is attached; and a thermosetting resin that is provided between the cover and the housing, and hardened by being irradiated with laser light.

Abstract: A rotary encoder is for detecting the rotation position or rotation speed of a shaft. The rotary encoder includes: a rotation code plate having a detection code and to be rotated by the shaft; and a boss attached to the rotation center of the rotation code plate and used for attaching the rotation code plate to the shaft. The boss is made of a resin material. The boss includes a fitting hole formed at the rotation center of the boss and used for making a fit with the shaft through press-fitting.

Abstract: A rotary encoder is for detecting the rotation position or rotation speed of a shaft. The rotary encoder includes: a rotation code plate having a detection code and to be rotated by the shaft; and a boss attached to the rotation center of the rotation code plate and used for attaching the rotation code plate to the shaft. The boss is made of a resin material. The boss includes a fitting hole formed at the rotation center of the boss and used for making a fit with the shaft through press-fitting.

Abstract: A medicine feeding device is configured by providing a first rotor 23 that rotates around a first shaft 24, a second rotor 35 that rotates around a second shaft, a partition wall 18 extending from the second rotor 35 towards the first rotor 23, a medicine discharge port 73 provided on the outside of the second rotor 35, a medicine guide section 65 located in the downstream of a movement section 37 in the medicine transport direction, and a height regulator 41 disposed between the movement section 37 and medicine guide section 65. In addition, the width regulator 52 that is disposed between the medicine guide section 65 and the height regulator 41 is further provided. Also, the medicine counting device is further provided with a medicine detection means 70 for detecting a medicine that is supplied from the medicine discharge port 73, and a counting means (central control unit 83) for counting the medicines based on the detection by the medicine detection means 70.

Abstract: There is provided a process for industrial production of simple 3-carboxy-cis,cis-muconic acid and/or 3-carboxymuconolactone from low molecular mixtures derived from plant components such as vanillin, vanillic acid and protocatechuic acid, via a multistage enzyme reaction. A recombinant plasmid containing a vanillate demethylase gene (vanAB genes), benzaldehyde dehydrogenase gene (ligV gene) and protocatechuate 3,4-dioxygenase gene (pcaHG genes); transformants incorporating the plasmid; and a process for production of 3-carboxy-cis,cis-muconic acid and/or 3-carboxymuconolactone characterized by culturing the transformants in the presence of vanillin, vanillic acid, protocatechuic acid or a mixture of two or more thereof.

Abstract: An electrode mixture paste application method includes: a first step of unwinding a core material (2) wound in a coil shape; a second step of applying an electrode mixture paste (5) to both sides of the core material; a third step of adjusting an application amount of the electrode mixture paste; a fourth step of drying a paste-coated sheet with the electrode mixture paste applied to the both sides thereof; and a fifth step of winding the paste-coated sheet (6) in a coil shape, wherein, in the fifth step, the paste-coated sheet is wound such that each of widthwise edge portions of a mixture-formed portion (9) is prevented from sequentially overlapping itself. This can achieve a stable method for applying an electrode mixture paste in which the deformation of an electrode caused by a dog-bone shape generated at both edge portions of a mixture-formed portion can be avoided.

Abstract: Industrial-scale fermentative production of 3-carboxy-cis,cis-muconic acid from terephthalic acid. Also, a protocatechuate 4,5-ring-cleaving enzyme gene-disrupted strain in which the gene coding for (a) the amino acid sequence set forth in SEQ ID NO: 1 or 3, or (b) the amino acid sequence set forth in SEQ ID NO: 1 or 3 which has a deletion, substitution, addition and/or insertion of one or more amino acids and exhibits protocatechuate 4,5-ring cleavage activity, present in the chromosomal DNA of microbial cells, has been disrupted; recombinant plasmids comprising the Tph gene and protocatechuate 3,4-dioxygenase gene; transformants obtained by introducing the recombinant plasmids into the disrupted strain; and a process for production of 3-carboxy-cis,cis-muconic acid and/or 3-carboxymuconolactone characterized by culturing the transformants in the presence of terephthalic acid.

Abstract: There is provided a process for industrial production of simple 3-carboxy-cis,cis-muconic acid and/or 3-carboxymuconolactone from low molecular mixtures derived from plant components such as vanillin, vanillic acid and protocatechuic acid, via a multistage enzyme reaction. A recombinant plasmid containing a vanillate demethylase gene (vanAB genes), benzaldehyde dehydrogenase gene (ligV gene) and protocatechuate 3,4-dioxygenase gene (pcaHG genes); transformants incorporating the plasmid; and a process for production of 3-carboxy-cis,cis-muconic acid and/or 3-carboxymuconolactone characterized by culturing the transformants in the presence of vanillin, vanillic acid, protocatechuic acid or a mixture of two or more thereof.

Abstract: An electrode mixture paste application method includes: a first step of unwinding a core material (2) wound in a coil shape; a second step of applying an electrode mixture paste (5) to both sides of the core material; a third step of adjusting an application amount of the electrode mixture paste; a fourth step of drying a paste-coated sheet with the electrode mixture paste applied to the both sides thereof; and a fifth step of winding the paste-coated sheet (6) in a coil shape, wherein, in the fifth step, the paste-coated sheet is wound such that each of widthwise edge portions of a mixture-formed portion (9) is prevented from sequentially overlapping itself. This can achieve a stable method for applying an electrode mixture paste in which the deformation of an electrode caused by a dog-bone shape generated at both edge portions of a mixture-formed portion can be avoided.

Abstract: A packaging machine moves its heater unit for longitudinal sealing of a tubularly formed film between a sealing position at which the heater unit contacts the film and a retracted position at which it is separated from the film. In addition to the mechanism for this motion, an air cylinder is provided for controlling the compressive force with which the heater unit at its sealing position compresses the film. A pressure controlling system regulates the air pressure supplied to the air cylinder. If the mechanism for moving the heater unit also employs another air cylinder, a higher pressure for moving the heater unit and a lower pressure for controlling its compressive force may be generated from a single air source and supplied to the two air cylinders by a switching mechanism. A single air cylinder with two air chambers may be used for the both functions.