Abstract: A connector housing (20) includes a housing body (21) to which a mating connector housing is to be fit from front. A lock arm (40) has front and rear ends fixed to the housing body (21). A lock (42) is provided in a central part of the lock arm (40) in the front-rear direction and is configured to lock the mating connector housing. A pressing surface (43) is on a rear end part of the lock arm (40) and is configured to displace the lock (42) in an unlocking direction by being pressed. A coupling portion (44) couples the pressing surface (43) to the central part of the lock arm (40) in the front-rear direction.

Abstract: A connector (C) includes a housing (60), a terminal fitting (10) and a retainer (80). The housing (60) includes a cavity (64) extending in a front-rear direction and a retainer insertion hole (72) intersecting and communicating with the cavity and open in an outer surface. The terminal fitting (10) is inserted into the cavity (64) from behind, and a stabilizer configured to guide an inserting operation into the cavity (64) and restrict the inserting operation in an erroneous posture projects on an outer side. The retainer (80) is inserted into the retainer insertion hole (72) and include a retaining portion (85) configured to face the stabilizer from behind.

Abstract: A terminal fitting (T) includes an inner conductor (11), an outer conductor (12) and a dielectric (13) interposed between these conductors. The inner conductor (11) is connected to a core (51) of a shielded cable (W). The outer conductor (12) includes two shield crimping pieces (45) deformable along an outer periphery of a braided wire (53) of the shielded cable (W). Further, the terminal fitting (T) includes a cover (14) including a shield-side surrounding portion (84) for surrounding the shield crimping pieces (45) along outer peripheries thereof.

Abstract: A terminal fitting (T) includes an inner conductor (11) and an outer conductor (12). The inner conductor (11) has a mating connecting portion (15) to be connected to a mating terminal fitting and a center conductor crimping portion (16) to be crimped to a center conductor of a shielded cable. The outer conductor (12) has a tubular portion (19) configured to surround the mating connecting portion (15). A coupling (21) is behind the tubular portion (19). The center conductor crimping portion is inside the coupling (21). A shield crimping portion (22) is behind the coupling (21) and is to be crimped to a shield layer of the shielded cable. A conductive member (60) extends in a front-rear direction and includes a bridge (61) to electrically contact the tubular portion (19) and the shield crimping portion (22) across the coupling (21).

Abstract: An object detection device includes: an imaging unit configured to image the surroundings of a vehicle; a horizontal edge extraction unit configured to extract horizontal edges that are characteristic lines of approximately horizontal direction components in a search region of an image captured by the imaging unit; and a detection object recognition unit configured to recognize a detection object within a recognition region set on the basis of, among the horizontal edges extracted by the horizontal edge extraction unit, a specific horizontal edge satisfying a predetermined condition.

Abstract: A stacker crane includes a transferring device, a first camera, a second camera, and a system controller. The transferring device transfers the article W to and from the shelf. The first camera and the second camera are provided on the transferring device and are fixed at positions where the first and second cameras can capture images of end parts of the article placed on the transferring device in a front-rear direction which is at least a transferring direction of the article and a transfer destination shelf on the end part side in the front-rear direction. Based on detection results of the first camera and the second camera, the system controller identifies the presence or absence of an article on the transfer destination shelf and determines the article-state abnormality of the article placed on the transferring device.

Abstract: A waterproof connector (10) includes a female housing (30) formed with cavities (31), and female terminals (20) connected to ends of wires (W) are inserted into the cavities (31) from behind. Shorting terminals (50) are accommodated in terminal accommodating portions (40) in a front part of the housing (30) to short adjacent female terminals (20). A one-piece rubber plug (60) is fit into a rear part of the housing (30) and includes through holes (62) through which the wires (W) are to be inserted. A rear holder (70) is mounted into the housing (30) to retain the one-piece rubber plug (60). Recesses (65) are provided on the one-piece rubber plug (60) in areas behind the terminal accommodating portions (40). Compressing protrusions (75) project from the rear holder (70) and are press-fit into the recesses (65) from behind.

Abstract: A battery terminal (1) includes a main body (10) with upper and lower plates (20U, 20L). The upper plate (20U) includes an upper mounting hole (23U), and upper plate fastening portions (26U, 27U). The lower plate (20L) includes a lower mounting hole (23L) and lower plate fastening portions (26L, 27L). A first receiving wall (41A) is connected to a first upper plate fastening portion (26U) and engages a first lower plate fastening portion (26L). A second receiving wall (41B) is connected to the second upper plate fastening portion (27U) and engages the second lower plate fastening portion (27L). A bracket (70) is mounted on the main body (10) and has a first pressing portion (73A) with a first tapered surface (74A) to contact the first receiving wall (41A) and a second pressing portion (73B) with a second tapered surface (74B) to contact the second receiving wall (41B).

Abstract: A battery terminal 1 includes a terminal main body 2 including an upper plate portion 10 and a lower plate portion 60 provided separately from the upper plate portion 10, the upper plate portion 10 including a upper plate mounting portion 20 having an upper plate mounting hole 21 through which a battery post 140 is to be inserted and an upper plate fastening portion 30 connected to the upper plate mounting portion 20, the lower plate portion 60 including a lower plate mounting portion 70 having a lower plate mounting hole 71 through which the battery post 140 is to be inserted and a lower plate fastening portion 80 connected to the lower plate mounting portion 70, and a bracket 100 configured to deform the upper plate mounting hole 21 and the lower plate mounting hole 71 to reduce them in diameter by being mounted on the terminal main body 2.

Abstract: A battery terminal (1) includes a main body (10) with upper and lower plates (20U, 20L). The upper plate (20U) includes an upper mounting hole (23U), and upper plate fastening portions (26U, 27U). The lower plate (20L) includes a lower mounting hole (23L) and lower plate fastening portions (26L, 27L). A first receiving wall (41A) is connected to a first upper plate fastening portion (26U) and engages a first lower plate fastening portion (26L). A second receiving wall (41B) is connected to the second upper plate fastening portion (27U) and engages the second lower plate fastening portion (27L). A bracket (70) is mounted on the main body (10) and has a first pressing portion (73A) with a first tapered surface (74A) to contact the first receiving wall (41A) and a second pressing portion (73B) with a second tapered surface (74B) to contact the second receiving wall (41B).

Abstract: A battery terminal (1) includes a main body (10) with an upper plate (20U) including an upper plate mounting hole (23U), a lower plate (20L) including a lower plate mounting hole (23L), and first and second couplings (30A, 30B) that couple the upper and lower plates (20U, 20L). A bracket (70) deforms the upper and lower plate mounting holes (23U, 23L) to reduce diameters by being mounted on the terminal main body (10). The first and second couplings (30A, 30B) have first and second contact surfaces (32A, 32B) perpendicular to the upper and lower plates (20U, 20L). A nut (90) is arranged between the upper and lower plates (20U, 20L) and threadedly receives a bolt (80). A side surface (93A) of the nut (90) perpendicular to surfaces where a nut hole (91) is open is in contact with the first and second contact surfaces (32A, 32B).

Abstract: A battery terminal 1 includes a terminal main body 2 including an upper plate portion 10 and a lower plate portion 60 provided separately from the upper plate portion 10, the upper plate portion 10 including a upper plate mounting portion 20 having an upper plate mounting hole 21 through which a battery post 140 is to be inserted and an upper plate fastening portion 30 connected to the upper plate mounting portion 20, the lower plate portion 60 including a lower plate mounting portion 70 having a lower plate mounting hole 71 through which the battery post 140 is to be inserted and a lower plate fastening portion 80 connected to the lower plate mounting portion 70, and a bracket 100 configured to deform the upper plate mounting hole 21 and the lower plate mounting hole 71 to reduce them in diameter by being mounted on the terminal main body 2.

Abstract: A waterproof connector (10) includes a female housing (30) formed with cavities (31), and female terminals (20) connected to ends of wires (W) are inserted into the cavities (31) from behind. Shorting terminals (50) are accommodated in terminal accommodating portions (40) in a front part of the housing (30) to short adjacent female terminals (20). A one-piece rubber plug (60) is fit into a rear part of the housing (30) and includes through holes (62) through which the wires (W) are to be inserted. A rear holder (70) is mounted into the housing (30) to retain the one-piece rubber plug (60). Recesses (65) are provided on the one-piece rubber plug (60) in areas behind the terminal accommodating portions (40). Compressing protrusions (75) project from the rear holder (70) and are press-fit into the recesses (65) from behind.

Abstract: A vehicle recognition device 1 has a characteristic region identifying unit 5 that identifies two characteristic regions 9 arranged in a horizontal direction in an image 6 from an imaging unit 2, and a region outer end identifying unit 10 that identities outer ends 11 in the horizontal direction of the two characteristic regions 9. The region outer end identifying unit 10 identifies a corrected outer end 15 in the case where the difference in width in the horizontal direction between the two characteristic regions 9 is not a predetermined value or less.

Abstract: An object detection device includes: an imaging unit configured to image the surroundings of a vehicle; a horizontal edge extraction unit configured to extract horizontal edges that are characteristic lines of approximately horizontal direction components in a search region of an image captured by the imaging unit; and a detection object recognition unit configured to recognize a detection object within a recognition region set on the basis of, among the horizontal edges extracted by the horizontal edge extraction unit, a specific horizontal edge satisfying a predetermined condition.

Abstract: A vehicle recognition device 1 has a characteristic region identifying unit 5 that identifies two characteristic regions 9 arranged in a horizontal direction in an image 6 from an imaging unit 2, and a region outer end identifying unit 10 that identities outer ends 11 in the horizontal direction of the two characteristic regions 9. The region outer end identifying unit 10 identifies a corrected outer end 15 in the case where the difference in width in the horizontal direction between the two characteristic regions 9 is not a predetermined value or less.

Abstract: A display panel driver that can take in pixel data without wasteful electric power consumption even if the number of output terminals of the display panel driver is greater than the number of source lines of the display panel, and a driving method thereof. The display panel driver has latches individually, respectively hold pixel data pieces, each of which is for a pixel, based on an input video signal according to information stored in a setting register and applies drive pulses corresponding to the pixel data pieces held in the latches to the source lines of the display panel.

Abstract: The amount of communication with an external MCU can be reduced to reduce power consumption, and reduced power consumption and reduced cost can also be anticipated in the external MCU. An MCU first transmits old image data and new image data from image memory to a register by serial communication without modifying the data and with substantially no computational processing thereof. Combinations of waveform data necessary for displaying a color is then stored in a waveform latch circuit from a waveform data shift register and a combination of waveform data is selectively outputted by each of a group of 4-to-1 selectors. Data transmission from the external MCU from the waveform data shift register to the waveform latch circuit is thereby restricted to the initial stage.

Abstract: In an optical transmission node, a plurality of shelves, respectively connected to a plurality of optical cables having limitations on bending radius, are stored in one rack of the node. In a shelf body thereof, the first and second opening portions are made in a front surface, and an extra-cable looping device loops an extra portion of the optical cable, further a moving mechanism is provided for moving the extra-cable looping device to avoid a space occupied by the units in a state removed from the second opening portion, this enables extra-cable handling within a limited spatial range and the insertion/removal of the units having various functions from the shelf in a state where the cable is active and further the improvement of a shelf mounting density per rack.

Abstract: With the RFID comprising a transmitting and receiving antenna, a detecting block formed in the circumference of the antenna, and an electronic component connected to the antenna and detecting block to detect breakdown of the detecting block, illegal use can be prevented, matching between the tag antenna and IC chip can also be attained with inclusion of the detecting means, and higher radiation and receiving characteristics of antenna can also be obtained without deterioration of antenna gain. Moreover, the RFID is very effective for keeping security because illegal use of the RFID tag through re-adhesion thereof to an item can be prevented.