Abstract: A positioning structure includes a positioning aiding member attached to a horizontal beam of a sheet feeder and having a positioning hole formed at an opposed portion thereof opposed to the horizontal beam. The positioning aiding member has a guide part that, when an image forming apparatus is installed onto a top of the sheet feeder, guides a horizontal beam of the image forming apparatus such that a positioning hole formed in a lower surface of the horizontal beam of the image forming apparatus approaches a first positioning pin coupled with the positioning aiding member as viewed in an extending direction of the horizontal beam of the sheet feeder.

Abstract: An electrical connector of an image forming apparatus exposes outward from a bottom surface of the image forming apparatus. An electrical connector of a sheet feeder protrudes from a top surface of the sheet feeder. The sheet feeder has a slider configured to be horizontally movable, while holding the electrical connector of the sheet feeder, between a connecting position at which the electrical connectors of the sheet feeder and image forming apparatus are connected and a disconnecting position at which the electrical connectors are disconnected. A locking member having a locking engaged part is fixed to the image forming apparatus. When the slider is moved to the connecting position, a locking engaging part of the slider engages the locking engaged part of the locking member so that the locking member and the slider are locked such that they cannot be separated vertically from each other.

Abstract: A connector terminal (40) is formed by a connector joining portion (400) that is joined to a mating connector terminal, a connector bonding portion (40A) that is bent from the connector joining portion (40C) and extends along a surface of a board (31) and a movement stopper portion (40P-C) that engages with a movement stopper part (31E) provided at the board (31) and stops the connector bonding portion (40A) from moving on the surface of the board (31). In a state in which the connector bonding portion (40A) is put on solder applied to the board (31), the movement stopper portion (40P-C) engages with the movement stopper part (31E) of the board (31), and the connector terminal (40) is bonded and fixed to the board (31) with melted solder.

Abstract: An element-side connection terminal (40) extending from a power conversion circuit unit (16) includes a first connection terminal portion (40A) that extends in a direction intersecting a direction of extension of a counterpart-side connection terminal (38); and a second connection terminal portion (40B) that is bent at a point before the first connection terminal portion (40A) reaches the counterpart-side connection terminal (38) in a direction to intersect the direction of extension of the counterpart-side connection terminal (38) such that the second connection terminal portion (40B) is provided with elasticity and is in an elastic contact with the counterpart-side connection terminal (38) at an angle. A tip end side (38T) of the counterpart-side connection terminal (38) and a tip end side (40T) of the second connection terminal portion (40B) are electrically joined.

Abstract: A toner container includes a container body, a first projecting member, a second projecting member, and a plurality of rotational members. The first projecting member and the second projecting member are provided on a bottom surface of the container body, configured to divide an inner space of the container body into a plurality of storage chambers that are juxtaposed in a width direction of the container body, and formed parallel to one another. The plurality of rotational members are rotatably provided, respectively, in the plurality of storage chambers, and juxtaposed in the width direction. Each rotational member includes a rotational shaft body, and a film-like stirring member that is attached to the rotational shaft body and extends in a direction perpendicular to that of the rotational shaft body. A height of the first projecting member from the bottom surface is different from that of the second projecting member.

Abstract: A toner case includes a case main body, first and second agitators, and a transmitting mechanism. The case main body is configured to store a toner. The first and second agitators are configured to rotate and to agitate the toner in the case main body. A transmitting mechanism is configured to transmit rotation to the first and second agitators. The transmitting mechanism stops transmission of the rotation to the second agitator while the transmitting mechanism continues the transmission of the rotation to the first agitator, when driving torque of the second agitator is equal to or more than a first set value.

Abstract: A toner container includes a container body, a first bearing portion, and a rotational member. The container body in which toner is stored includes a pair of side walls that face one another across a specific distance. The first bearing portion is provided in an inner surface of at least one side wall of the pair of side walls. The rotational member includes a rotational shaft that is rotatably supported by the first bearing portion. The first bearing portion includes a terminal end portion on one side and an open portion on another side, and further includes a first long groove in which the rotational shaft is inserted, and a projection protruding from a groove bottom surface that extends from the open portion to the terminal end portion of the first long groove.

Abstract: An object of the present invention is to improve the reliability of a power converter against electromagnetic noise.

Abstract: A toner case includes a case main body, first and second agitators, and a transmitting mechanism. The case main body is configured to store a toner. The first and second agitators are configured to rotate and to agitate the toner in the case main body. A transmitting mechanism is configured to transmit rotation to the first and second agitators. The transmitting mechanism stops transmission of the rotation to the second agitator while the transmitting mechanism continues the transmission of the rotation to the first agitator, when driving torque of the second agitator is equal to or more than a first set value.

Abstract: A toner container includes a container body, a first bearing portion, and a rotational member. The container body in which toner is stored includes a pair of side walls that face one another across a specific distance. The first bearing portion is provided in an inner surface of at least one side wall of the pair of side walls. The rotational member includes a rotational shaft that is rotatably supported by the first bearing portion. The first bearing portion includes a terminal end portion on one side and an open portion on another side, and further includes a first long groove in which the rotational shaft is inserted, and a projection protruding from a groove bottom surface that extends from the open portion to the terminal end portion of the first long groove.

Abstract: A toner container includes a container body, a first projecting member, a second projecting member, and a plurality of rotational members. The first projecting member and the second projecting member are provided on a bottom surface of the container body, configured to divide an inner space of the container body into a plurality of storage chambers that are juxtaposed in a width direction of the container body, and formed parallel to one another. The plurality of rotational members are rotatably provided, respectively, in the plurality of storage chambers, and juxtaposed in the width direction. Each rotational member includes a rotational shaft body, and a film-like stirring member that is attached to the rotational shaft body and extends in a direction perpendicular to that of the rotational shaft body. A height of the first projecting member from the bottom surface is different from that of the second projecting member.

Abstract: An image reading device includes a placing plate, a frame, a scanner, and a flat cable. The flat cable has a flat surface, has one end connected to a cable port provided in the scanner and the other end connected to the frame, and transmits/receives a signal to/from the scanner. The flat cable extends in the frame such that a width direction of the flat surface is along a direction perpendicular to a lower surface of the placing plate.

Abstract: An image reading apparatus includes a contact glass, a frame in a box shape, a scanner, a flat cable, and a control unit. The flat cable contains core wires and has a flat shaped flat surface. The flat cable runs inside the frame such that a width direction of the flat surface runs along a direction perpendicular to the lower surface of the contact glass. The flat cable has a side that opposes to the lower surface of the contact glass. The side includes a plurality of document detection sensors in a state where detection directions face the lower surface side of the contact glass. The plurality of document detection sensors are electrically connected to any of the core wires among the plurality of core wires contained in the flat cable, the plurality of document detection sensors outputting detection signals transmitted to the control unit via the core wires.

Abstract: An object of the present invention is to achieve reduction in height of an electric power conversion device while maintaining high performance of the electric power conversion device.

Abstract: An optical module includes a driver that generates an electric signal and an optical modulator that has a notch in which at least a portion of the driver is accommodated and performs optical modulation using an electric signal generated by the driver. The optical module also includes a first connector electrically connected to the driver in the notch of the optical modulator. The optical module further includes a second connector provided on a surface of the notch of the optical modulator, the surface being opposed to the first connector. The second connector is electrically connected to the optical modulator. Furthermore, the optical module includes a coaxial pin that is connected to the first connector and the second connector and transmits the electric signal generated by the driver to the optical modulator.

Abstract: To suppress reduction in resistance against vibrations, while reducing the number of components, a power conversion device including a power semiconductor module that converts a DC current into an AC current, a plate conductor that transfers the DC current or the AC current, a resin sealing material that seals the plate conductor, and an electric component that is used to control the power semiconductor module has the resin sealing material include a supporting member. The supporting member supports the electric component, and the plate conductor is buried in a portion of the resin sealing material that is disposed to face the electric component.

Abstract: An optical module includes a substrate on which an optical waveguide is formed, and an optical fiber assembly. The optical fiber assembly includes an optical fiber, a translucent member, and a mirror portion. The translucent member includes a joint surface joined to an end surface of the substrate at an end of the optical waveguide, and is attached to a distal end of the optical fiber. The mirror portion is formed on the translucent member, reflects light emitted from the distal end of the optical fiber in a direction different from a traveling direction of the light, and collects the reflected light into the end of the optical waveguide through the joint surface.

Abstract: An image reading device includes a placing plate, a frame, a scanner, and a flat cable. The flat cable has a flat surface, has one end connected to a cable port provided in the scanner and the other end connected to the frame, and transmits/receives a signal to/from the scanner. The flat cable extends in the frame such that a width direction of the flat surface is along a direction perpendicular to a lower surface of the placing plate.

Abstract: An image reading apparatus includes a contact glass, a frame in a box shape, a scanner, a flat cable, and a control unit. The flat cable contains core wires and has a flat shaped flat surface. The flat cable runs inside the frame such that a width direction of the flat surface runs along a direction perpendicular to the lower surface of the contact glass. The flat cable has a side that opposes to the lower surface of the contact glass. The side includes a plurality of document detection sensors in a state where detection directions face the lower surface side of the contact glass. The plurality of document detection sensors are electrically connected to any of the core wires among the plurality of core wires contained in the flat cable, the plurality of document detection sensors outputting detection signals transmitted to the control unit via the core wires.

Abstract: A light communication device further includes a rigid substrate, a package, and a flexible substrate. The rigid substrate includes a first terminal arranged on a surface thereof and a second terminal having a first hole opened at the surface. The package includes a third terminal and a fourth terminal being provided on a side wall thereof and being electrically coupled to a signal electrode and a ground electrode of the signal processor, respectively. The flexible substrate includes a fifth terminal and a sixth terminal being electrically coupled to the third terminal and the fourth terminal, respectively. The fifth terminal is electrically coupled to the first terminal on the surface, and the sixth terminal, with being placed into the first hole, is electrically coupled to the second terminal.