Abstract: A terminal fitting 10 includes a main body 20 to be coupled to a mating conductor, and a crimp contact section 30 rearward from the main body 20. The crimp contact section 30 is crimped on an end of a core wire 42 in a covered electrical cable 40 so as to surround the end. The core wire 42 includes a plurality of metallic strands 41 and is covered with a sheath 43 to form the covered electrical cable 40. Serrations 34 are provided on a contact surface of the crimp contact section 30 for surrounding the core wire 42. Each serration 34 is a polygonal shaped recess with which the core wire 42 engages upon crimping. Both diagonal corner portions 34C of each serration 34 are rounded. Thus, the whole periphery of an opening edge around the recess penetrates an oxide layer on a core wire.

Abstract: A plurality of recesses are formed on a surface of a wire barrel where an electric wire is provided. In a state before the electric wire is crimped onto the wire, barrel, at least one of sides comprising rims of an opening of each recess of a quadrangular shape is a crossing side crossing at an angle of from 85 degrees to 95 degrees to an extending direction. In a state before the electric wire is crimped onto the wire barrel 16, the crossing sides of a plurality of recesses positioned adjacent to each other in the extending direction are so arranged as to overlap with each other in the extending direction.

Abstract: An electric wire with a terminal connector includes an electric wire and a female terminal connector crimped onto a core wire exposed at the electric wire. A female terminal connector has a wire barrel having a surface to be applied to the core wire. The surface has a plurality of recesses formed therein. Each recess has a parallelogram-shaped opening edge. The opening edge of the recess includes a pair of first opening edges that are parallel to each other and a pair of second opening edges that are parallel to each other and different from the first opening edges. The recesses are spaced in the extending direction of the first opening edges and are spaced in the extending direction of the second opening edges.

Abstract: A controller of a construction machine includes a target command value computing unit generating a speed target command value for normal motion of a working equipment based on a manipulating signal, a target command value correcting unit correcting the command value, and a command signal output unit outputting a command signal to a driving device based on the corrected speed target command value. The target command value correcting unit includes a vibration suppressing unit generating a speed target command value for vibration suppression to suppress generation of vibrations in the working equipment based on the command value, a peak value recognizing unit recognizing a peak value of the command value based on the command value sequentially generated by the target command value computing unit, and a target command value compositing unit compositing the command values according to the peak value to correct the command value.

Abstract: A construction machine includes: a working equipment; a manipulating unit that manipulates the working equipment; and a controller that controls the working equipment. The controller includes: a rolling compaction determining unit that determines whether or not the working equipment is under a rolling compaction operation for hardening earth and sand through reciprocation; and a command output regulating unit that controls the working equipment so that a motion speed of the working equipment does not exceed a predetermined maximum value when the rolling compaction determining unit determines that the working equipment is under the rolling compaction operation.

Abstract: A controller constituting a construction machine includes: a target value computing unit that generates a speed target value of a boom based on a lever manipulating signal; a target value correcting unit that corrects the speed target value; and a command signal output unit that outputs a command signal to a boom driving device based on the corrected speed target value. The target value correcting unit includes: a motion information acquiring unit that acquires motion information on a motion of an arm; a maximum value determining unit that determines based on the motion information a maximum correction value for reducing suppression of a floating motion by a floating motion suppressing unit as the motion of the arm becomes faster; and a correction value regulating unit that corrects the speed target value based on the maximum correction value.

Abstract: A glass substrate obtained by a method including measuring flatness of a glass substrate surface and measuring concentration distribution of dopant in the substrate. Processing conditions of the surface are set up for each site of the substrate based on results from the measuring the flatness and the measuring the distribution, and the finishing is carried out while keeping an angle formed by normal line of the substrate and incident beam onto the surface at from 30 to 89°. The surface is subjected to second finishing for improving an RMS in a high spatial frequency region. The surface after the second finishing satisfies the requirements: an RMS slope in the region that 5 ?m<? (spatial wavelength)<1 mm is not more than 0.5 mRad and an RMS slope in the region that 250 nm<? (spatial wavelength)<5 ?m is not more than 0.6 mRad.

Abstract: With the use of a tool (41), first cutting is applied to a work (W), and then second cutting is applied to the work (W) while the tool (41) is transferred in an X-axis direction. Then, an amount of deviation dy between the cutting edge height of the tool (41) and the center line of the work (W) is calculated based on a first diameter value (D1) and second diameter value (D2) measured after the first cutting and second cutting are applied, and the travel distance of the tool (41) between the first cutting and the second cutting. Machining to the work (W) is resumed after the amount of deviation is corrected.

Abstract: The present invention relates to a low expansion glass substrate which serves as a substrate of a reflective mask used in a lithography step of semiconductor production steps, wherein two side surfaces positioned to face each other among side surfaces formed along a periphery of the low expansion glass substrate, each have a flatness of 25 ?m or less.

Abstract: A glass substrate obtained by a method including measuring flatness of a glass substrate surface and measuring concentration distribution of dopant in the substrate. Processing conditions of the surface are set up for each site of the substrate based on results from the measuring the flatness and the measuring the distribution, and the finishing is carried out while keeping an angle formed by normal line of the substrate and incident beam onto the surface at from 30 to 89°. The surface is subjected to second finishing for improving an RMS in a high spatial frequency region. The surface after the second finishing satisfies the requirements: an RMS slope in the region that 5 ?m<?(spatial wavelength)<1 mm is not more than 0.5 mRad and an RMS slope in the region that 250 nm<?(spatial wavelength)<5 ?m is not more than 0.6 mRad.

Abstract: A terminal (20) has a terminal main body (51) with a projection (55) to be engaged with a retainer (40). A wire barrel (21) to be crimped to a core (11) of a wire (10), an insulation barrel (23) to be crimped to an insulating coating (12) and a rubber plug barrel (24) to be crimped to a rubber plug (15) are successively arranged behind the main body (51). Bottom parts of the wire barrel (21) and the insulation barrel (23) are at low positions having substantially the same height. A front end of the wire barrel (23) is crimped flat to suppress bend-up of the core (11). The front end of the crimped wire barrel (21) is insertable to a position facing a projecting end of the retainer (40) when the terminal (20) is inserted to a proper position in a cavity (31) of a housing (30).

Abstract: A terminal fitting 10 includes a main body 20 to be coupled to a mating conductor, and a crimp contact section 30 rearward from the main body 20. The crimp contact section 30 is crimped on an end of a core wire 42 in a covered electrical cable 40 so as to surround the end. The core wire 42 includes a plurality of metallic strands 41 and is covered with a sheath 43 to form the covered electrical cable 40. Serrations 34 are provided on a contact surface of the crimp contact section 30 for surrounding the core wire 42. Each serration 34 is a polygonal shaped recess with which the core wire 42 engages upon crimping. Both diagonal corner portions 34C of each serration 34 are rounded. Thus, the whole periphery of an opening edge around the recess penetrates an oxide layer on a core wire.

Abstract: A terminal fitting (10) includes a main body (20) to be coupled to a mating conductor, and a crimp contact section (30) rearward from the main body (20). The crimp contact section (30) is crimped on an end of a core wire (42) in a covered electrical cable (40) so as to surround the end. The core wire (42) includes a plurality of metallic strands (41) and is covered with a sheath (43) to form the covered electrical cable (40). Serrations (34) are provided on a contact surface of the crimp contact section (30) for surrounding the core wire (42). Each serration (34) is a polygonal shaped recess with which the core wire (42) engages upon crimping. Both diagonal corner portions (34C) of each serration (34) are rounded. Thus, the whole periphery of an opening edge around the recess penetrates an oxide layer on a core wire.

Abstract: An object of the present invention is to provide a TiO2-containing quartz glass substrate which, when used as a mold base for nanoimprint lithography, can form a concavity and convexity pattern having a dimensional variation falling within ±10%. The invention relates to a TiO2-containing quartz glass substrate: in which a coefficient of thermal expansion in the range of from 15 to 35° C. is within ±200 ppb/° C.; a TiO2 concentration is from 4 to 9 wt %; and a TiO2 concentration distribution, in a substrate surface on the side where a transfer pattern is to be formed, is within ±1 wt %.

Abstract: A terminal fitting (10, 130, 510) has a connecting portion (11, 131, 511) to be connected with a mating connecting portion, and a crimping portion (12, 140) continuous with the rear end of the connecting portion (11, 131, 511) and including a bottom plate (21, 148, 515) and crimping pieces (22, 147, 516) standing up from the bottom plate (21, 148, 515). The crimping portion (12, 140) is crimped into connection with a wire (30, 120, 590) while surrounding an end portion of the wire (30, 120, 590) by the bottom plate (21, 148, 515) and the crimping pieces (22, 147, 516). The bottom plate (21, 148, 515) is formed with a reinforcing rib (24, 150, 250, 350, 450, 525) extending in forward and backward directions.

Abstract: A plurality of recesses are formed on a surface of a wire barrel where an electric wire is provided. In a state before the electric wire is crimped onto the wire barrel, at least one of sides comprising rims of an opening of each recess of a quadrangular shape is a crossing side crossing at an angle of from 85 degrees to 95 degrees to an extending direction. In a state before the electric wire is crimped onto the wire barrel 16, the crossing sides of a plurality of recesses positioned adjacent to each other in the extending direction are so arranged as to overlap with each other in the extending direction.

Abstract: Rims of an opening of each recess form a parallelogram, and comprise two first opening rims that that are parallel to a first direction and two second opening rims that are parallel to a second direction. The first opening rims of each of the recesses that are aligned along the first direction are arranged on a straight line along the first direction. The second opening rims of each of the recesses that are aligned along the second direction are arranged on a straight line along the second direction. The recesses are formed by pressing a wire barrel with a die where a plurality of protruding parts are formed so as to correspond to recesses.