Abstract: Provided is a handle including an annular part configured to fit in a neck part of a container, a first extension part provided so as to be continuous with the annular part, and a first holding part provided so as to be continuous with the first extension part, in which the annular part includes a second contact part capable of coming into contact with a first contact part provided to the neck part, and the first extension part is configured to be positioned with respect to the container by the contact between the first contact part and the second contact part.

Abstract: Provided is a handle including an annular part configured to fit in a neck part of a container, a first extension part provided so as to be continuous with the annular part, and a first holding part provided so as to be continuous with the first extension part, in which the annular part includes a second contact part capable of coming into contact with a first contact part provided to the neck part, and the first extension part is configured to be positioned with respect to the container by the contact between the first contact part and the second contact part.

Abstract: Provided is a container with handle including an upper surface portion, a side surface portion, a bottom surface portion, and a grip portion formed to the side surface portion, in which the grip portion includes a first connecting end portion, a second connecting end portion, a grip body portion, and a hollow portion, and an area of a cross section of the hollow portion cut by a plane, which passes through a first end point of the second connecting end portion closest to a central axis of the container and is orthogonal to a central axis, is larger than an area of a cross section of the hollow portion cut by a plane which is at the grip body portion and is orthogonal to the central axis.

Abstract: A luminance control device and a luminance control method for controlling luminance of a light emitting member are provided in order to reduce the amount of information to be stored while preventing the user from feeling uncomfortable. The CPU divides by the interpolation division number a value obtained subtracting the reference duty ratio from the reference duty ratio so as to calculate an interpolation variation width, and integrates the interpolation variation width to the reference duty ratio every time the interpolation period elapses, and the variation width in the luminance of the LED is therefore reduced, preventing users to feel uncomfortable, which allows for suppressing the amount of information to be stored.

Abstract: A luminance control device and a luminance control method for controlling luminance of a light emitting member are provided in order to reduce the amount of information to be stored while preventing the user from feeling uncomfortable. The CPU divides by the interpolation division number a value obtained subtracting the reference duty ratio from the reference duty ratio so as to calculate an interpolation variation width, and integrates the interpolation variation width to the reference duty ratio every time the interpolation period elapses, and the variation width in the luminance of the LED is therefore reduced, preventing users to feel uncomfortable, which allows for suppressing the amount of information to be stored.

Abstract: A vehicle interior illumination device includes an illumination lamp that is provided in a vehicle interior and is configured to be turned on to illuminate the vehicle interior, a detector that detects a condition to have the illumination lamp to be turned on, and a controller that controls a lighting of the illumination lamp. When the condition is detected by the detector, the controller lights the illumination lamp with a first light amount and when the condition is not detected by the detector, the controller lights the illumination lamp with a second light amount smaller than the first light amount.

Abstract: A vehicle interior illumination device includes an illumination lamp that is provided in a vehicle interior and is configured to be turned on to illuminate the vehicle interior, a detector that detects a condition to have the illumination lamp to be turned on, and a controller that controls a lighting of the illumination lamp. When the condition is detected by the detector, the controller lights the illumination lamp with a first light amount and when the condition is not detected by the detector, the controller lights the illumination lamp with a second light amount smaller than the first light amount.

Abstract: In accordance with one embodiment of the invention, a display control device includes a driving circuit driving pixels based on successively inputted display data; and a drive mode control circuit determining an operation mode of the driving circuit based on the difference value between first display data among the display data and second display data among the display data, the first display data being the (N+1)th display data, and the second display data being the Nth display data.

Abstract: A structure for screw-tightening and connecting a terminal to an electrical junction box is provided. The terminal mounting structure in the electrical junction box ensures mounting operation with an insertion direction of the terminal obliquely oriented, and prevents heating of the terminal due to power supply. The terminal is secured and connected to a busbar of the junction box by a bolt, with a head and a shaft of the bolt inserted into a vertical opening and a horizontal notched hole of the terminal, respectively. A pair of opposed guiding walls are provided on a junction box body at both sides of the bolt. The guiding wall includes an entrance's side sloping surface obliquely extending from top to bottom, and a straight horizontal surface continuing to the sloping surface. The terminal includes a pair of outward projecting pieces at an upper portion to be slid on the sloping surface and the horizontal surface.

Abstract: A structure for screw-tightening and connecting a terminal to an electrical junction box is provided. The terminal mounting structure in the electrical junction box ensures mounting operation with an insertion direction of the terminal obliquely oriented, and prevents heating of the terminal due to power supply. The terminal is secured and connected to a busbar of the junction box by a bolt, with a head and a shaft of the bolt inserted into a vertical opening and a horizontal notched hole of the terminal, respectively. A pair of opposed guiding walls are provided on a junction box body at both sides of the bolt. The guiding wall includes an entrance's side sloping surface obliquely extending from top to bottom, and a straight horizontal surface continuing to the sloping surface. The terminal includes a pair of outward projecting pieces at an upper portion to be slid on the sloping surface and the horizontal surface.

Abstract: In accordance with one embodiment of the invention, a display control device includes a driving circuit driving pixels based on successively inputted display data; and a drive mode control circuit determining an operation mode of the driving circuit based on the difference value between first display data among the display data and second display data among the display data, the first display data being the (N+1)th display data, and the second display data being the Nth display data.

Abstract: A pair of shielded cables (20) having upper and lower ground terminals (30, 50) mounted thereon are brought in directions toward each other to slide upper and lower joint portions (31, 51) while placing them one over the other. Upon this assembling operation, the shielded cables (20) are brought into contact with arcuate standing portions (43, 63) formed at cable mounting portions (42, 62) or embraced by barrel pieces (44, 64) standing up from the arcuate standing portions (43, 63), thereby having displacements thereof relative to the upper and lower ground terminals (30, 50) prevented. Thus, operation forces can be reliably transmitted to the upper and lower joint portions (31, 51) via the shielded cables (20), and the assembling operation can be performed smoothly.

Abstract: A pair of shielded cables (20) having upper and lower ground terminals (30, 50) mounted thereon are brought in directions toward each other to slide upper and lower joint portions (31, 51) while placing them one over the other. Upon this assembling operation, the shielded cables (20) are brought into contact with arcuate standing portions (43, 63) formed at cable mounting portions (42, 62) or embraced by barrel pieces (44, 64) standing up from the arcuate standing portions (43, 63), thereby having displacements thereof relative to the upper and lower ground terminals (30, 50) prevented. Thus, operation forces can be reliably transmitted to the upper and lower joint portions (31, 51) via the shielded cables (20), and the assembling operation can be performed smoothly.

Abstract: A CMADS circuit is characterized in that one transmitter is able to drive a plurality of receivers at a high rate to make each of the receivers have a low amplitude. A signal line driving integrated circuit has input terminals formed along one side (for example, left side) of the integrated circuit for receiving each signal via each of CMADS bus lines and output terminals formed along an opposing side (right side) opposite the one side. The input and output terminals are disposed such that a distance from each of the input terminals to a side (lower side) of the integrated circuit along which the signal voltage output terminals are disposed becomes equal to that from each of the output terminals disposed to individually correspond to the input terminals to the lower side. Accordingly, a CMADS bus is formed penetrating the inside of the signal line driving integrated circuit.

Abstract: A display device is provided with a display controller, a source driver, and a liquid crystal panel, and two pairs of wirings are provided between the display controller and the source driver. The display controller is provided with a V-I conversion circuit for image data and a mode register, and the source driver is provided with an I-V conversion circuit for image data. The V-I conversion circuit for image data connects either one of a pair of the wirings to an earth electrode and sets the other one to a floating state based on the image data. The I-V conversion circuit for image data allows electric current to flow in the wiring out of a pair of the wirings, which is connected to the earth electrode, and converts the image data into a pair of complementary current signals to receive them. Further, the I-V conversion circuit for image data stops the current signal by a control signal from the mode register when the image data is not transmitted.

Abstract: A display device is provided with a display controller, a source driver, and a liquid crystal panel, and two pairs of wirings are provided between the display controller and the source driver. The display controller is provided with a V-I conversion circuit for image data and a mode register, and the source driver is provided with an I-V conversion circuit for image data. The V-I conversion circuit for image data connects either one of a pair of the wirings to an earth electrode and sets the other one to a floating state based on the image data. The I-V conversion circuit for image data allows electric current to flow in the wiring out of a pair of the wirings, which is connected to the earth electrode, and converts the image data into a pair of complementary current signals to receive them. Further, the I-V conversion circuit for image data stops the current signal by a control signal from the mode register when the image data is not transmitted.

Abstract: A device for absorbing harness slack is disclosed wherein a leaf spring (resilient member) 37 is provided with a harness-guide member 34 which supports a curved portion 33 of a wire harness 32 slidably. The harness-guide member 34 has an upper surface (harness-support member) 38 curved throughout its length toward the curved portion 33. Alternatively, the leaf spring 37 may be provided with the curved harness-guide member 34 rotatably through a coupling member 36. Also alternatively, a protector protecting the curved portion 33 of the wire harness 32 may be provided with the curved harness-guide member 34 rotatably, and the leaf spring 37 may urge the harness-guide member 34 through such as a cap in a direction of absorbing harness slack slidably. Also alternatively, the upper surface 38 may compose a groove curved in a circumferential direction of the wire harness.

Abstract: A display device is provided with a display controller, a source driver, and a liquid crystal panel, and two pairs of wirings are provided between the display controller and the source driver. The display controller is provided with a V-I conversion circuit for image data and a mode register, and the source driver is provided with an I-V conversion circuit for image data. The V-I conversion circuit for image data connects either one of a pair of the wirings to an earth electrode and sets the other one to a floating state based on the image data. The I-V conversion circuit for image data allows electric current to flow in the wiring out of a pair of the wirings, which is connected to the earth electrode, and converts the image data into a pair of complementary current signals to receive them. Further, the I-V conversion circuit for image data stops the current signal by a control signal from the mode register when the image data is not transmitted.

Abstract: A device for absorbing harness slack is disclosed wherein a leaf spring (resilient member) 37 is provided with a harness-guide member 34 which supports a curved portion 33 of a wire harness 32 slidably. The harness-guide member 34 has an upper surface (harness-support member) 38 curved throughout its length toward the curved portion 33. Alternatively, the leaf spring 37 may be provided with the curved harness-guide member 34 rotatably through a coupling member 36. Also alternatively, a protector protecting the curved portion 33 of the wire harness 32 may be provided with the curved harness-guide member 34 rotatably, and the leaf spring 37 may urge the harness-guide member 34 through such as a cap in a direction of absorbing harness slack slidably. Also alternatively, the upper surface 38 may compose a groove curved in a circumferential direction of the wire harness.

Abstract: A CMADS circuit is characterized in that one transmitter is able to drive a plurality of receivers at a high rate to make each of the receivers have a low amplitude. A signal line driving integrated circuit has input terminals formed along one side (for example, left side) of the integrated circuit for receiving each signal via each of CMADS bus lines and output terminals formed along an opposing side (right side) opposite the one side. The input and output terminals are disposed such that a distance from each of the input terminals to a side (lower side) of the integrated circuit along which the signal voltage output terminals are disposed becomes equal to that from each of the output terminals disposed to individually correspond to the input terminals to the lower side. Accordingly, a CMADS bus is formed penetrating the inside of the signal line driving integrated circuit.