mhurhangee/ep-ind-claims huggingface dataset:
A brake pedal device characterized by comprising: a partition wall that partitions an interior of a vehicle room where a brake pedal is arranged from an exterior; a vehicle body configuration member positioned behind the partition wall in a vehicle front-rear direction; a fixed bracket that is fixed to the vehicle body configuration member; a pedal bracket arranged between the partition wall and the vehicle body configuration member and fixed to the partition wall; a brake arm that is rotatably supported by the pedal bracket and has a brake pedal pad at one end of the brake arm; a push rod that initiates generation of braking force; a coupling arm that is supported by the pedal bracket and couples the push rod and the brake arm together; and a rotating arm supported by the coupling arm in a rotatable state, in which contact of one end of the rotating arm with the fixed bracket causes rotation of the rotating arm when the pedal bracket is displaced in a vehicle rearward direction, and the rotation causes contact of another end of the rotating arm with the push rod to induce curving of the push rod. a partition wall that partitions an interior of a vehicle room where a brake pedal is arranged from an exterior; a vehicle body configuration member positioned behind the partition wall in a vehicle front-rear direction; a fixed bracket that is fixed to the vehicle body configuration member; a pedal bracket arranged between the partition wall and the vehicle body configuration member and fixed to the partition wall; a brake arm that is rotatably supported by the pedal bracket and has a brake pedal pad at one end of the brake arm; a push rod that initiates generation of braking force; a coupling arm that is supported by the pedal bracket and couples the push rod and the brake arm together; and a rotating arm supported by the coupling arm in a rotatable state, in which contact of one end of the rotating arm with the fixed bracket causes rotation of the rotating arm when the pedal bracket is displaced in a vehicle rearward direction, and the rotation causes contact of another end of the rotating arm with the push rod to induce curving of the push rod.
A method for making a light guide, comprising: extruding a molten thermoplastic polymer through a die to form a wedge-shaped extrusion having a pair of opposing, nearly parallel faces (24, 26), a thinner side and a thicker side opposite to the thinner side, and a quadrilateral cross-section; cutting the extrusion to a fixed width; refining the cut extrusion by machining the cut extrusion to appropriate shape and appropriate dimensions for further processing; placing the refined extrusion in a compression mold, heating a mold surface of the compression mold to a melting temperature or a softening temperature of the thermoplastic polymer causing melting of a surface layer of the refined extrusion while at least some of the refined extrusion below the surface layer does not melt or softening but not melting the surface layer of the refined extrusion, and applying a pressure to the refined extrusion via the compression mold thus maintaining a face of the refined extrusion in contact with the heated mold surface to promote continued softening or melting of the surface layer of the face of the refined extrusion while applying pressure to the extrusion. extruding a molten thermoplastic polymer through a die to form a wedge-shaped extrusion having a pair of opposing, nearly parallel faces (24, 26), a thinner side and a thicker side opposite to the thinner side, and a quadrilateral cross-section; cutting the extrusion to a fixed width; refining the cut extrusion by machining the cut extrusion to appropriate shape and appropriate dimensions for further processing; placing the refined extrusion in a compression mold, heating a mold surface of the compression mold to a melting temperature or a softening temperature of the thermoplastic polymer causing melting of a surface layer of the refined extrusion while at least some of the refined extrusion below the surface layer does not melt or softening but not melting the surface layer of the refined extrusion, and applying a pressure to the refined extrusion via the compression mold thus maintaining a face of the refined extrusion in contact with the heated mold surface to promote continued softening or melting of the surface layer of the face of the refined extrusion while applying pressure to the extrusion.
A modular lock assembly of the type comprising: at least one command unit which is driven by a respective key and is constituted by a stator and by a rotor, said rotor being provided with a recess of a shape and size that are complementary to those of said key and with at least one pin for the mutual coupling/decoupling of the stator and the rotor, said pin being movable inside a channel that is substantially radial and extends also into the stator; at least one bit, which is operatively associated with said rotor that is designed to mechanically actuate the bolt that is driven by said lock assembly, said bit comprising an outer shell provided with a cam for actuation of the bolt, and sliders that can freely perform a translational motion inside the shell for selectively actuating the cam; and at least one extension element, which is interposed between said at least one command unit and said bit, and is constituted by a main body which has a longitudinal cavity for rotatably accommodating a casing holding an inner shaft that is axially slidable to allow to mechanically couple with the sliders for rotating said cam, said casing having a first contoured end which is rigidly coupled, directly or indirectly, in the assembled configuration, to said rotor of said command unit and a second contoured end comprising recesses which accommodate respective extensions of a slider, such that the contoured end can be selectively rigidly coupled, directly or indirectly, to said bit, a rotation of said rotor being imposed by an actuation thereof by means of the respective key, thus producing a rotation of said casing and, therefore, of said bit, with respect to said stator and to said main body which are mutually fixed and integral, characterized in that said shaft comprises at least one radial ring which is adapted to abut against respective stroke limiting protrusions which are present along the inner surface of the through hole of said casing.
Transport apparatus for the upright transport of successive book blocks (11a, 11b, 11c, 11d) in a transport direction, having a transport device and a transport channel, wherein the transport channel has a channel bottom, a fixed channel wall and at least one resilient device (9a, 9b, 9c) for pressing the book blocks (11a, 11b, 11c, 11d) at least with partial surface contact against the fixed channel wall, wherein either the transport channel has an adjustable channel wall which is spaced apart from the fixed channel wall and on which the at least one resilient device (9a, 9b, 9c) is arranged, or the transport apparatus has a framework, wherein the at least one resilient device (9a, 9b, 9c) is arranged on the framework so as to be adjustable or non-adjustable with respect to the fixed channel wall, characterized in that the resilient device (9a, 9b, 9c) has elastic elements (8a, 8b, 8c) with freely rotating rollers arranged successively in the transport direction.
An acoustic wave type touch panel, comprising: a substrate having a touch region, at which objects contact the substrate; reflective arrays (6a, 6b, 6c, 6d) constituted by a multiplicity of inclined lines, each of which sends and receives acoustic waves through the touch region, provided on the substrate; acoustic wave generating sections (10b, 10c, 30), for generating acoustic waves that propagate toward the reflective arrays (6a, 6b, 6c, 6d), provided on the substrate; and detecting sections (10a, 10d) for detecting the acoustic waves that change according to contact positions of objects with respect to the touch region, provided on the substrate; characterized by: an array of micro-reflectors, which are shorter than the inclined lines, for attenuating spurious waves 31, 32) generated by reflection of the acoustic waves by the reflective arrays (6a, 6b, 6c, 6d), being provided between the inclined lines at at least one end thereof. a substrate having a touch region, at which objects contact the substrate; reflective arrays (6a, 6b, 6c, 6d) constituted by a multiplicity of inclined lines, each of which sends and receives acoustic waves through the touch region, provided on the substrate; acoustic wave generating sections (10b, 10c, 30), for generating acoustic waves that propagate toward the reflective arrays (6a, 6b, 6c, 6d), provided on the substrate; and detecting sections (10a, 10d) for detecting the acoustic waves that change according to contact positions of objects with respect to the touch region, provided on the substrate; characterized by: an array of micro-reflectors, which are shorter than the inclined lines, for attenuating spurious waves 31, 32) generated by reflection of the acoustic waves by the reflective arrays (6a, 6b, 6c, 6d), being provided between the inclined lines at at least one end thereof. an array of micro-reflectors, which are shorter than the inclined lines, for attenuating spurious waves 31, 32) generated by reflection of the acoustic waves by the reflective arrays (6a, 6b, 6c, 6d), being provided between the inclined lines at at least one end thereof.
A solid-state imaging apparatus having a pixel array in which a plurality of unit cells are arranged to form a plurality of rows and a plurality of columns, wherein each of the plurality of unit cells comprises a pixel, the pixel comprising a photoelectric conversion element and an in-pixel readout circuit which is configured to output a signal corresponding to charges generated in the photoelectric conversion element, and wherein power is supplied to the plurality of unit cells via a power supply line and a ground line, characterized in that at least one of the plurality of unit cells comprises in addition to the pixel at least a part of a capacitive element having a first electrode connected to the power supply line and a second electrode connected to the ground line.
A process for producing a silica-based fine particle water dispersion sol that contains silica-based fine particles in which the surface of silica fine particles has been modified with aluminum, and has a pH in an acidic region from 3.0 to 6.0, wherein the silica-based fine particles are spherical or chain particles having an average particle diameter in the range of 5 to 50 nm, the process comprising: a step of mixing an aqueous aluminate solution to an alkaline silica sol which contains water-dispersible silica fine particles and has a pH in the range of 9.0 to 11.5, in a ratio such that the Al 2 O 3 /SiO 2 molar ratio is 0.005 to 0.050 wherein a silicon component contained in the silica sol is represented by SiO 2 and aluminum contained in the aluminate is represented by Al 2 O 3; a step of heating the mixture liquid obtained in the above step to a temperature of 60 to 200°C and stirring the mixture liquid at the temperature for 0.5 to 20 hours; and a step of contacting the mixture liquid obtained in the step with a cation exchange resin to remove by ion exchange alkali metal ions contained in the mixture liquid and thereby controlling the pH of the mixture liquid to be in the range of 3.0 to 6.0, characterised in that the alkaline silica sol used in the step contains alkali metal ions, and the SiO 2 /M 2 O molar ratio is in the range of 20 to 300 wherein the alkali metal ions are represented by M 2 O (wherein M is the alkali metal element) and the silicon component contained in the silica sol is represented by SiO 2, and the average particle diameter is determined by the following methods; when the particles are spherical particles, the average particle diameter is calculated by the following equation using BET method; the average particle diameter (nm) = 6000/[specific surface area (m 2 /g) x density (ρ)], wherein the density of silica, 2.2, was used as the density (ρ), when the particles are chain particles, the average particle diameter is calculate by the following equation using TEM method; the average particle diameter nm = L nm + D nm / 2, wherein L is the longitudinal length and D is the lateral length measured with respect to a transmission electron micrograph. a step of mixing an aqueous aluminate solution to an alkaline silica sol which contains water-dispersible silica fine particles and has a pH in the range of 9.0 to 11.5, in a ratio such that the Al 2 O 3 /SiO 2 molar ratio is 0.005 to 0.050 wherein a silicon component contained in the silica sol is represented by SiO 2 and aluminum contained in the aluminate is represented by Al 2 O 3; a step of heating the mixture liquid obtained in the above step to a temperature of 60 to 200°C and stirring the mixture liquid at the temperature for 0.5 to 20 hours; and a step of contacting the mixture liquid obtained in the step with a cation exchange resin to remove by ion exchange alkali metal ions contained in the mixture liquid and thereby controlling the pH of the mixture liquid to be in the range of 3.0 to 6.0,
A chimeric endonuclease comprising a) at least one LAGLIDADG endonuclease having DNA double strand break inducing activity and at least 80% amino acid sequence identity to a polypeptide described by SEQ ID NO: 1, 2, 3, 122, 123, 124 or 165 and b) one heterologous DNA binding domain comprising one or more Zn 2 C 6 zinc fingers. a) at least one LAGLIDADG endonuclease having DNA double strand break inducing activity and at least 80% amino acid sequence identity to a polypeptide described by SEQ ID NO: 1, 2, 3, 122, 123, 124 or 165 and b) one heterologous DNA binding domain comprising one or more Zn 2 C 6 zinc fingers.
A deposit head for a forming machine for forming hollow bodies; the deposit head comprising a support frame adapted to be coupled to a moving member, motorized supply means and guide means carried by said support frame to feed, along a predefined feeding path, a belt comprising a layer of adhesive material and a protective strip arranged on only one side of said layer of adhesive material, motorized winding means for winding said protective strip and carried by said frame, and a first pressing roller for pushing said strip and said layer of adhesive material toward a deposit surface of said adhesive material and rotatable about an axis thereof that is orthogonal to said feeding path, characterized by further comprising a second pressing roller for pushing said strip and said adhesive material toward said deposit surface; said second pressing roller being carried by said support frame and being rotatable about an axis thereof forming, with said feeding path, an angle other than 90°; first actuation and guide means being interposed between said support frame and said second pressing roller for moving the second pressing roller in opposite directions along a direction transversal to said feeding path.
A method for producing an amorphous carbon particle, comprising steps of: obtaining a first crosslinked product by admixing mesophase particles with an amorphous carbon precursor and thereafter subjecting the mixture to a crosslinking treatment, or obtaining a second crosslinked product by crosslinking the amorphous carbon precursor and thereafter admixing the mesophase particles with the crosslinked precursor, and subjecting the first or second crosslinked product to an infusibilization treatment and thereafter firing the product to produce amorphous carbon particles including the mesophase particles within the particles, wherein the mesophase particles are added in an amount of 1 to 70 mass% relative to the amorphous carbon precursor. obtaining a first crosslinked product by admixing mesophase particles with an amorphous carbon precursor and thereafter subjecting the mixture to a crosslinking treatment, or obtaining a second crosslinked product by crosslinking the amorphous carbon precursor and thereafter admixing the mesophase particles with the crosslinked precursor, and subjecting the first or second crosslinked product to an infusibilization treatment and thereafter firing the product to produce amorphous carbon particles including the mesophase particles within the particles, wherein the mesophase particles are added in an amount of 1 to 70 mass% relative to the amorphous carbon precursor.
A method of performing active noise cancellation using an active noise cancellation system of a personal listening device, wherein the active noise cancellation system comprises a first error microphone at an error reference point, the method comprising: creating a plurality of leakage profiles adapted for a corresponding leakage condition relating to a positioning and/or fit of the personal listening device with respect to a user's anatomy, wherein the leakage profiles are created by placing the personal listening device comprising the active noise cancellation system on a head and torso simulator having a second error microphone at an ear drum location and tuning the active noise cancellation system based on an error signal produced by the second error microphone for different leakage conditions; processing a reference signal representing ambient noise through feedforward active noise cancellation path to adaptively generate an anti-noise signal to cancel the ambient noise, wherein the processing comprises applying an adaptive gain to the anti-noise signal wherein the gain is adapted to one or more leakage conditions; and determining a leakage profile based at least in part on the adaptive gain by selecting the leakage profile from the plurality of leakage profiles, wherein processing the reference signal further comprises applying an adaptive filter to generate the anti-noise signal corresponding to the reference signal in accordance with the determined leakage profile. creating a plurality of leakage profiles adapted for a corresponding leakage condition relating to a positioning and/or fit of the personal listening device with respect to a user's anatomy, wherein the leakage profiles are created by placing the personal listening device comprising the active noise cancellation system on a head and torso simulator having a second error microphone at an ear drum location and tuning the active noise cancellation system based on an error signal produced by the second error microphone for different leakage conditions; processing a reference signal representing ambient noise through feedforward active noise cancellation path to adaptively generate an anti-noise signal to cancel the ambient noise, wherein the processing comprises applying an adaptive gain to the anti-noise signal wherein the gain is adapted to one or more leakage conditions; and determining a leakage profile based at least in part on the adaptive gain by selecting the leakage profile from the plurality of leakage profiles, wherein processing the reference signal further comprises applying an adaptive filter to generate the anti-noise signal corresponding to the reference signal in accordance with the determined leakage profile.
An automatic analyzing device comprising: - a reagent container holding mechanism that has a plurality of reagent containers placed thereon and that can rotate; - a reagent replacement position transferring mechanism that transfers the reagent containers placed on the reagent container holding mechanism to an outside of the reagent container holding mechanism; - a reagent container loading mechanism that loads the reagent containers to the reagent container holding mechanism; and - a reagent cover opening mechanism that opens the covers of the reagent containers held by the reagent container holding mechanism, wherein: - the reagent cover opening mechanism, the reagent container loading mechanism, and the reagent replacement position transferring mechanism are arranged on a circumference of the replacement reagent container holding mechanism; characterized in that - the reagent cover opening mechanism and the reagent replacement position transferring mechanism are arranged so that: o a reagent holding capacity number of the reagent container holding mechanism and o a number of slots by which the reagent containers on the reagent container holding mechanism move between the reagent cover opening mechanism and the reagent replacement position transferring mechanism have a relationship satisfying: X = nY ± 1, where n is an arbitrary natural number except for 0. - a reagent container holding mechanism that has a plurality of reagent containers placed thereon and that can rotate; - a reagent replacement position transferring mechanism that transfers the reagent containers placed on the reagent container holding mechanism to an outside of the reagent container holding mechanism; - a reagent container loading mechanism that loads the reagent containers to the reagent container holding mechanism; and - a reagent cover opening mechanism that opens the covers of the reagent containers held by the reagent container holding mechanism, - the reagent cover opening mechanism, the reagent container loading mechanism, and the reagent replacement position transferring mechanism are arranged on a circumference of the replacement reagent container holding mechanism; - the reagent cover opening mechanism and the reagent replacement position transferring mechanism are arranged so that: o a reagent holding capacity number of the reagent container holding mechanism and o a number of slots by which the reagent containers on the reagent container holding mechanism move between the reagent cover opening mechanism and the reagent replacement position transferring mechanism have a relationship satisfying: X = nY ± 1, where n is an arbitrary natural number except for 0. o a reagent holding capacity number of the reagent container holding mechanism and o a number of slots by which the reagent containers on the reagent container holding mechanism move between the reagent cover opening mechanism and the reagent replacement position transferring mechanism
An apparatus configured to: receive from a mobile device predicted geographic path signalling associated with prediction of a geographic path to be taken by said mobile device, the geographic path extending across two or more cells, each cell defining a particular set of radio channels available for use by the mobile device in that cell; determine, based on said signalling, one or more radio channels available for use by the mobile device along the geographic path; characterised in that the apparatus is further configured to transmit, in advance of the mobile device moving along the geographic path, to the mobile device an indication of the one or more radio channels available for use by the mobile device along the geographic path in each respective cell along the geographic path. receive from a mobile device predicted geographic path signalling associated with prediction of a geographic path to be taken by said mobile device, the geographic path extending across two or more cells, each cell defining a particular set of radio channels available for use by the mobile device in that cell; determine, based on said signalling, one or more radio channels available for use by the mobile device along the geographic path; characterised in that the apparatus is further configured to transmit, in advance of the mobile device moving along the geographic path, to the mobile device an indication of the one or more radio channels available for use by the mobile device along the geographic path in each respective cell along the geographic path.