mhurhangee/ep-ind-claims huggingface dataset:
A multi-cylinder internal combustion engine, comprising: a cylinder head having intake ports; an intake manifold having branch pipes communicating respectively with the intake ports and a shared, flange-shaped joint portion formed on respective opening portions of the branch pipes; and a sleeve structure comprising a plurality of sleeve main bodies fitted respectively into the intake ports and a shared base, said shared base is provided on one end of the plurality of sleeve main bodies, said sleeve main bodies and said shared base are made of a resin and are molded integrally, wherein the resin exhibits lower thermal conductivity than the cylinder head, bolt holes are formed in the base, collars are fitted to the bolt holes, bolts are passed through the base via the collars to cause the shared, flange-shaped joint portion and the shared base to be fixed to the cylinder head by the bolts, each of the collars includes a flange portion that is exposed to an outer side of the base opposite the intake manifold, and an annular projection is formed on the base in a position opposing the flange portion. a cylinder head having intake ports; an intake manifold having branch pipes communicating respectively with the intake ports and a shared, flange-shaped joint portion formed on respective opening portions of the branch pipes; and a sleeve structure comprising a plurality of sleeve main bodies fitted respectively into the intake ports and a shared base, said shared base is provided on one end of the plurality of sleeve main bodies, said sleeve main bodies and said shared base are made of a resin and are molded integrally, wherein the resin exhibits lower thermal conductivity than the cylinder head, bolt holes are formed in the base, collars are fitted to the bolt holes, bolts are passed through the base via the collars to cause the shared, flange-shaped joint portion and the shared base to be fixed to the cylinder head by the bolts, each of the collars includes a flange portion that is exposed to an outer side of the base opposite the intake manifold, and an annular projection is formed on the base in a position opposing the flange portion.
A piercer plug having a chemical composition of, in mass %: 0.15 to 0.30 % C; 0.4 to 1.2 % Si; 0.2 to 1.5 % Mn; 0.1 to 2.0 % Ni; 0 to 4.0 % Mo and 0 to 4.0 % W, where a total content of Mo and W is 1.0 to 6.0 %; 1.2 % or higher and not higher than 4.0 % Cr; 0 to 0.2 % B; 0 to 1.0 % Nb; 0 to 1.0 % V; 0 to 1.0 % Ti; and balance Fe and impurities, the plug comprising: a tip portion; and a trunk portion made of the same material as the tip portion and contiguous to the tip portion, the trunk portion including a cylindrical portion having a hole used to mount a bar, the tip portion being harder than the cylindrical portion. 0.15 to 0.30 % C; 0.4 to 1.2 % Si; 0.2 to 1.5 % Mn; 0.1 to 2.0 % Ni; 0 to 4.0 % Mo and 0 to 4.0 % W, where a total content of Mo and W is 1.0 to 6.0 %; 1.2 % or higher and not higher than 4.0 % Cr; 0 to 0.2 % B; 0 to 1.0 % Nb; 0 to 1.0 % V; 0 to 1.0 % Ti; and balance Fe and impurities, the plug comprising: a tip portion; and a trunk portion made of the same material as the tip portion and contiguous to the tip portion, the trunk portion including a cylindrical portion having a hole used to mount a bar, the tip portion being harder than the cylindrical portion. a tip portion; and a trunk portion made of the same material as the tip portion and contiguous to the tip portion, the trunk portion including a cylindrical portion having a hole used to mount a bar, the tip portion being harder than the cylindrical portion.
Backrest device for an item of furniture for seating and in particular an office chair, which device comprises a backrest, a backrest support and a positioning apparatus for guided linear, and in particular quasi vertical, movement of a first element relative to a second element via a predefined adjustment path, the positioning apparatus having a guide housing, a sliding profile which is arranged in the guide housing and has a longitudinal axis, and a locking element, the sliding profile or the guide housing of the positioning apparatus comprising a latching row which extends along the longitudinal axis and has a plurality of latching ramps, the locking element of the positioning apparatus being resiliently mounted and engaging in the latching row in a latching position such that the sliding profile can be moved in stages in a first direction along the longitudinal axis with respect to the guide housing and a movement in a second direction counter to the first direction is blocked by the locking element striking one of the latching ramps, the locking element of the positioning apparatus being retained in a release position in which it is disengaged from the latching row such that the sliding profile can be moved freely in the first direction and in the second direction along the longitudinal axis with respect to the guide housing, the locking element of the positioning apparatus being mounted so as to be rotatable about an axis of rotation, the locking element of the positioning apparatus being rotated in the latching position resiliently about the axis of rotation into the latching row and preferably rotating back and forth about the axis of rotation when the sliding profile moves in the first direction along the longitudinal axis with respect to the guide housing, the locking element of the positioning apparatus being retained in the release position so as to be rotated about the axis of rotation in a retaining position to the extent that said locking element is disengaged from the latching row, the backrest being mounted on the guide housing of the positioning apparatus, and the backrest support being mounted on the sliding profile of the positioning apparatus, characterized in that the positioning apparatus comprises a guide housing having a substantially circular cylindrical outer circumference, in that the backrest has a socket which has an inner surface which substantially corresponds to the outer circumference of the guide housing of the positioning apparatus, and in that the positioning apparatus is arranged in the socket of the backrest such that the socket of the backrest can be rotated around the guide housing of the positioning apparatus.
A system comprising: a controller configured to configure a light signal with an intensity and a time of application to achieve a target biological effect, wherein the time of application is thirty seconds or less and the intensity is an amount of radiant exposure to be delivered during the time of application; a generator configured to receive the configuration from the controller and generate the light signal according to the intensity and the time of application; and an optrode configured to be placed proximal to at least a portion of a peripheral nerve to apply the light signal to the portion of the peripheral nerve to deliver the amount of radiant exposure during the time to at least one axon within the portion of the peripheral nerve to achieve the target biological effect, wherein the at least one axon is configured to activate at least one muscle associated with the target biological effect to achieve the target biological effect, wherein the target biological effect extends for at least two minutes beyond the time of application. a controller configured to configure a light signal with an intensity and a time of application to achieve a target biological effect, wherein the time of application is thirty seconds or less and the intensity is an amount of radiant exposure to be delivered during the time of application; a generator configured to receive the configuration from the controller and generate the light signal according to the intensity and the time of application; and an optrode configured to be placed proximal to at least a portion of a peripheral nerve to apply the light signal to the portion of the peripheral nerve to deliver the amount of radiant exposure during the time to at least one axon within the portion of the peripheral nerve to achieve the target biological effect, wherein the at least one axon is configured to activate at least one muscle associated with the target biological effect to achieve the target biological effect, wherein the target biological effect extends for at least two minutes beyond the time of application.
A rotation angle detection device of a motor comprising: a sensor configured to output a sensor signal including a sine-wave signal and a cosine-wave signal in accordance with a rotation of a motor rotation shaft of a motor; a sensor power supply unit configured to supply power to the sensor; a power control unit configured to control the sensor power supply unit to supply power to the sensor continually when a power switch is on and supply power to the sensor intermittently when the power switch is off; and a sensor signal detection unit configured to detect a change in the sine-wave signal and a change in the cosine-wave signal; characterized in that the power control unit sets a drive interval for driving the sensor by providing power intermittently to the sensor to a first time interval when no change is detected in the sine-wave signal and the cosine-wave signal, sets to a second time interval that is shorter than the first time interval when a change in only one of the sine-wave signal and the cosine-wave signal is detected, and sets to a third time interval that is shorter than the second time interval when a change in one of the sine-wave signal and the cosine-wave signal is detected and then a change in the other is detected. a sensor configured to output a sensor signal including a sine-wave signal and a cosine-wave signal in accordance with a rotation of a motor rotation shaft of a motor; a sensor power supply unit configured to supply power to the sensor; a power control unit configured to control the sensor power supply unit to supply power to the sensor continually when a power switch is on and supply power to the sensor intermittently when the power switch is off; and a sensor signal detection unit configured to detect a change in the sine-wave signal and a change in the cosine-wave signal; characterized in that the power control unit sets a drive interval for driving the sensor by providing power intermittently to the sensor to a first time interval when no change is detected in the sine-wave signal and the cosine-wave signal, sets to a second time interval that is shorter than the first time interval when a change in only one of the sine-wave signal and the cosine-wave signal is detected, and sets to a third time interval that is shorter than the second time interval when a change in one of the sine-wave signal and the cosine-wave signal is detected and then a change in the other is detected.
Method for the preparation of compound of formula by a reaction REAC1 of compound of formula with trichloroisocyanuric acid; wherein REAC1 is done in the presence of amylene; REAC1 is done in the solvent acetone; R1 is NH 2, methoxy or ethoxy. REAC1 is done in the presence of amylene; REAC1 is done in the solvent acetone; R1 is NH 2, methoxy or ethoxy.
Protective tube comprising a plurality of warp-knitted threads defining a strip the longitudinal edges of which are in contact with or overlap each other, defining a substantially circular cross-section, wherein at least one thread of said plurality of warp-knitted threads is a monofilament thread which forms tricot stiches on three to five needles or tricot stitches combined with chain stitches forming atlas type stitches on three to five needles, characterised in that said threads of said plurality of warp-knitted threads are interwoven forming, in order, chain stitches, tricot stitches or atlas type stitches, and weft inlay stitches.
A wax for toners for developing electrostatic images, wherein the wax is an ester wax generated by esterification of a pentaerythritol and a monocarboxylic acid; wherein the monocarboxylic acid used for the esterification contains a behenic acid, an arachidic acid and a stearic acid; and wherein, with respect to 100% by mass of the monocarboxylic acid, a content ratio of the behenic acid is from 60% by mass to 80% by mass; a content ratio of the arachidic acid is from 5% by mass to 15% by mass; and a content ratio of the stearic acid is from 15% by mass to 25% by mass. wherein the wax is an ester wax generated by esterification of a pentaerythritol and a monocarboxylic acid; wherein the monocarboxylic acid used for the esterification contains a behenic acid, an arachidic acid and a stearic acid; and wherein, with respect to 100% by mass of the monocarboxylic acid, a content ratio of the behenic acid is from 60% by mass to 80% by mass; a content ratio of the arachidic acid is from 5% by mass to 15% by mass; and a content ratio of the stearic acid is from 15% by mass to 25% by mass.
A cage assembly for implanting between and securing together two portions of bone in a tibial tuberosity advancement, the cage assembly comprising: an elongated cage body having a first end, a second end, opposing sides (28,30), a top and a bottom, the cage body for placement between said two portions of bone (10,14) such that each side (28,30) contacts one of said portions of bone (10,14) so as to maintain a space between the portions of bone (10,14); and a securing member; wherein the first end of the cage body and the securing member are configured to be engagable with each other so as to interlock in a manner that prevents the securing member from moving longitudinally away from the cage body; and wherein the securing member is arrangable, when interlocked with the cage body, such that it has a portion which extends laterally outwards beyond each opposing side (28,30) of the cage body, and wherein each portion comprises an opening through which securing member is screwed or pinned to the bone portions (10, 14) in use; wherein the securing member and cage body are releasably engagable such that they may be repeatedly interlocked with and disengaged from each other; characterised in that the securing member has openings and is rotatable relative to said cage body when interlocked with the cage body so that the positions of the openings in the securing member may be moved relative to the cage body. an elongated cage body having a first end, a second end, opposing sides (28,30), a top and a bottom, the cage body for placement between said two portions of bone (10,14) such that each side (28,30) contacts one of said portions of bone (10,14) so as to maintain a space between the portions of bone (10,14); and a securing member; wherein the first end of the cage body and the securing member are configured to be engagable with each other so as to interlock in a manner that prevents the securing member from moving longitudinally away from the cage body; and wherein the securing member is arrangable, when interlocked with the cage body, such that it has a portion which extends laterally outwards beyond each opposing side (28,30) of the cage body, and wherein each portion comprises an opening through which securing member is screwed or pinned to the bone portions (10, 14) in use; wherein the securing member and cage body are releasably engagable such that they may be repeatedly interlocked with and disengaged from each other; characterised in that the securing member has openings and is rotatable relative to said cage body when interlocked with the cage body so that the positions of the openings in the securing member may be moved relative to the cage body.
An electrode material for a non-aqueous solvent secondary cell, comprising a powdery mixture of: 5 - 60 wt.% of a metal material capable of doping and dedoping lithium; and 40 - 95 wt.% (giving a total of 100 wt.% together with the metal material) of a capacitive carbon material capable of doping and dedoping lithium comprising: a pitch based non-graphitic porous carbon material characterized by an average layer spacing (d 002) of at least 0.345 nm as measured by X-ray diffraction method and a specific surface area of at least 2 m 2 /g as measured by BET method according to nitrogen absorption; or a non-graphitic carbon material of plant origin characterized by an average layer spacing (d 002) of at least 0.345 nm as measured by X-ray diffraction method and a specific surface area of at least 2 m 2 /g as measured by BET method according to nitrogen absorption, and 1-10 wt.% (based on the total of the metal material and the capacitive carbon material) of a fine electroconductive additive being carbon black. 5 - 60 wt.% of a metal material capable of doping and dedoping lithium; and 40 - 95 wt.% (giving a total of 100 wt.% together with the metal material) of a capacitive carbon material capable of doping and dedoping lithium comprising: a pitch based non-graphitic porous carbon material characterized by an average layer spacing (d 002) of at least 0.345 nm as measured by X-ray diffraction method and a specific surface area of at least 2 m 2 /g as measured by BET method according to nitrogen absorption; or a non-graphitic carbon material of plant origin characterized by an average layer spacing (d 002) of at least 0.345 nm as measured by X-ray diffraction method and a specific surface area of at least 2 m 2 /g as measured by BET method according to nitrogen absorption, and a pitch based non-graphitic porous carbon material characterized by an average layer spacing (d 002) of at least 0.345 nm as measured by X-ray diffraction method and a specific surface area of at least 2 m 2 /g as measured by BET method according to nitrogen absorption; or a non-graphitic carbon material of plant origin characterized by an average layer spacing (d 002) of at least 0.345 nm as measured by X-ray diffraction method and a specific surface area of at least 2 m 2 /g as measured by BET method according to nitrogen absorption, and 1-10 wt.% (based on the total of the metal material and the capacitive carbon material) of a fine electroconductive additive being carbon black.
A lighting device, comprising: a body; a first light source and a second light source, which are disposed on the body and are disposed symmetrically with each other with respect to a central axis of the body; a first light guide unit which is disposed on the first light source and is coupled to the body and which has one side optically coupled to the first light source; and a second light guide unit which is disposed on the second light source and is coupled to the body and which has one side optically coupled to the second light source, wherein the first light guide unit and the second light guide unit are disposed symmetrically with each other with respect to the central axis of the body, and wherein the body comprises a first surface on which the first light source is disposed, and a second surface on which the second light source is disposed, characterized in that the first and the second surfaces form an acute angle with the central axis of the body, wherein the one side of the first light guide unit comprises at least one curved portion on which light from the first light source is incident, and wherein the curved portion allows a part of the light from the first light source to pass therethrough. a body; a first light source and a second light source, which are disposed on the body and are disposed symmetrically with each other with respect to a central axis of the body; a first light guide unit which is disposed on the first light source and is coupled to the body and which has one side optically coupled to the first light source; and a second light guide unit which is disposed on the second light source and is coupled to the body and which has one side optically coupled to the second light source, wherein the first light guide unit and the second light guide unit are disposed symmetrically with each other with respect to the central axis of the body, and wherein the body comprises a first surface on which the first light source is disposed, and a second surface on which the second light source is disposed, characterized in that the first and the second surfaces form an acute angle with the central axis of the body, wherein the one side of the first light guide unit comprises at least one curved portion on which light from the first light source is incident, and wherein the curved portion allows a part of the light from the first light source to pass therethrough.
A rack bar configured to mesh with a pinion gear, the rack bar comprising a shaft portion and a rack toothed portion provided on the shaft portion, wherein the rack toothed portion comprises a plurality of rack teeth provided side by side in an axial direction of the shaft portion to mesh with the pinion gear, wherein each of the rack teeth comprises a tooth tip portion, a contact face arranged obliquely relative to the axial direction and configured to contact the pinion gear, and a rounded corner portion between the tooth tip portion and the contact face, and wherein a first radius (Rb) defining a central area of the rounded corner portion with respect to a tooth width direction is larger than a second radius (Ra) defining another area of the rounded corner portion other than the central area so that a straight face length (La) of the contact face in a cross section (Sa) of a portion of the rack tooth near an end of the rack tooth in the tooth width direction is larger than a straight face length (Lb) of the contact face in a cross section (Sb) of a central portion of the rack tooth with respect to the tooth width direction, and in that the height of the rack tooth from a tooth bottom portion to the tooth tip portion is substantially the same in the cross section (Sa) of the portion of the rack tooth near the end of the rack tooth and in the cross section (Sb) of the central portion of the rack tooth.
Surface acoustic wave resonator, SAW, comprising at least: - one substrate; - one layer of piezoelectric material arranged on the substrate; - one first attenuation layer arranged between the substrate and the layer of piezoelectric material and/or, when the substrate comprises at least two separate layers (104, 106), one second attenuation layer arranged between the two layers (104, 106) of the substrate; and wherein the attenuation layer or layers (112, 114) are able to diffuse or absorb at least one portion of parasitic acoustic waves and comprise porous silicon and/or polysilicon in which are arranged doped regions that render the attenuation layer or layers (112, 114) heterogeneous. - one substrate; - one layer of piezoelectric material arranged on the substrate; - one first attenuation layer arranged between the substrate and the layer of piezoelectric material and/or, when the substrate comprises at least two separate layers (104, 106), one second attenuation layer arranged between the two layers (104, 106) of the substrate; and wherein the attenuation layer or layers (112, 114) are able to diffuse or absorb at least one portion of parasitic acoustic waves and comprise porous silicon and/or polysilicon in which are arranged doped regions that render the attenuation layer or layers (112, 114) heterogeneous.