mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device comprising: a first semiconductor chip including a first field effect transistor for switching; a first chip mounting portion on which the first semiconductor chip is mounted via a first bonding material; a first lead electrically connected to a first pad for source (PDHS1) of the first semiconductor chip through a first metal plate; a first metal portion formed integrally with the first lead; and a sealing body in which the first semiconductor chip, the first metal plate, the first metal portion, at least a part of the first chip mounting portion, and a part of the first lead are sealed, wherein a first back surface electrode for drain of the first semiconductor chip and the first chip mounting portion are bonded via the first bonding material, the first metal plate and the first pad for source (PDHS1) of the first semiconductor chip are bonded via a second bonding material, the first metal plate and the first metal portion are bonded via a third bonding material, the first bonding material, the second bonding material, and the third bonding material have conductivity, characterized in that an elastic modulus of each of the first bonding material and the second bonding material is lower than that of the third bonding material. a first semiconductor chip including a first field effect transistor for switching; a first chip mounting portion on which the first semiconductor chip is mounted via a first bonding material; a first lead electrically connected to a first pad for source (PDHS1) of the first semiconductor chip through a first metal plate; a first metal portion formed integrally with the first lead; and a sealing body in which the first semiconductor chip, the first metal plate, the first metal portion, at least a part of the first chip mounting portion, and a part of the first lead are sealed, wherein a first back surface electrode for drain of the first semiconductor chip and the first chip mounting portion are bonded via the first bonding material, the first metal plate and the first pad for source (PDHS1) of the first semiconductor chip are bonded via a second bonding material, the first metal plate and the first metal portion are bonded via a third bonding material, the first bonding material, the second bonding material, and the third bonding material have conductivity, characterized in that an elastic modulus of each of the first bonding material and the second bonding material is lower than that of the third bonding material.
A vegetable oil derivative comprising the structure: where R 1, R 2, and R 3 are independently selected from a C15 alkenyl to a C20 alkenyl or from a C15 alkyl to a C20 alkyl, and optionally containing aromatic groups; R is - S - S - R 4 or R is - S - X - S - S - R 4 where X is a substituted or unsubstituted alkane diyl, a substituted or unsubstituted phenylene, or a combination thereof; R 4 is a monovalent organic group; each R is covalently bonded to a carbon atom of one of R 1, R 2, or R 3; and m is the number of R groups.
A food dough forming apparatus for joining together a first end face (W1A) and a second end face (W2A) of a rod-shaped food dough (W1, W2), wherein a first portion of the food dough extending from the first end face (W1A) and a second portion of the food dough extending from the second end face (W2A) extend approximately parallel to each other with a predetermined interval therebetween, the food dough forming apparatus, comprising: a deforming and facing section to deform the food dough (W1, W2) so as to cause the first end face (W1A) and the second end face (W2A) to face each other, and a joining section to join together the first end face (W1A) and the second end face (W2A) caused to face each other by the deforming and facing section, characterized in that the deforming and facing section includes a first outer arm, a first inner arm, a second outer arm and a second inner arm, the joining section includes approaching/parting means for approaching or parting the second inner and outer arms (21, 23) and the first inner and outer arms (17, 19), and the arms (17, 19, 21, 23) of the deforming and facing section can obliquely tilt the first end face (W1A) and the second end face (W2A) by deforming a portion located near the first end face (W1A) in the first portion and a portion located near the second end face (W2A) in the second portion so that the portions are parted from each other. a deforming and facing section to deform the food dough (W1, W2) so as to cause the first end face (W1A) and the second end face (W2A) to face each other, and a joining section to join together the first end face (W1A) and the second end face (W2A) caused to face each other by the deforming and facing section, the deforming and facing section includes a first outer arm, a first inner arm, a second outer arm and a second inner arm, the joining section includes approaching/parting means for approaching or parting the second inner and outer arms (21, 23) and the first inner and outer arms (17, 19), and the arms (17, 19, 21, 23) of the deforming and facing section can obliquely tilt the first end face (W1A) and the second end face (W2A) by deforming a portion located near the first end face (W1A) in the first portion and a portion located near the second end face (W2A) in the second portion so that the portions are parted from each other.
An evacuation slide comprising: - a sliding face having a top end portion adapted to be positioned adjacent to an exit of a region to be evacuated, and a bottom end portion adapted to be positioned adjacent to an escape route leading away from the region to be evacuated and being arranged at a lower height than the region to be evacuated, and - a light signal generating device adapted to irradiate at least one light beam onto the escape route which extends further in a direction parallel to a center line of the escape route than in a direction perpendicular to the center line of the escape route so as to indicate a predefined evacuation direction along the escape route, characterized in that the light signal generating device is adapted to generate at least one substantially fan-shaped light beam with a maximum light intensity plane extending substantially perpendicular to a surface of the escape route. - a sliding face having a top end portion adapted to be positioned adjacent to an exit of a region to be evacuated, and a bottom end portion adapted to be positioned adjacent to an escape route leading away from the region to be evacuated and being arranged at a lower height than the region to be evacuated, and - a light signal generating device adapted to irradiate at least one light beam onto the escape route which extends further in a direction parallel to a center line of the escape route than in a direction perpendicular to the center line of the escape route so as to indicate a predefined evacuation direction along the escape route,
A compound of Formula (I-A): or a pharmaceutically acceptable salt thereof, wherein, R 1 is selected from hydrogen, -C(=O)OCH 2 (C 6-15 carbocycle) and - C(=O)OCH 2 (substituted C 6-15 carbocycle), wherein the one or more substituents is selected from C 1-6 alkyl, halogen, hydroxy, alkoxy, and amino; and R 2 is benzyl, allyl, 2-(trimethylsilyl)ethyl, or 2,2,2-trichloroethyl. R 1 is selected from hydrogen, -C(=O)OCH 2 (C 6-15 carbocycle) and - C(=O)OCH 2 (substituted C 6-15 carbocycle), wherein the one or more substituents is selected from C 1-6 alkyl, halogen, hydroxy, alkoxy, and amino; and R 2 is benzyl, allyl, 2-(trimethylsilyl)ethyl, or 2,2,2-trichloroethyl.
A valve prosthesis comprising: a valve body; and a self-expanding frame (11, 13, 15, 17), wherein the valve body includes a first leaflet (31a, 35a, 37a), a second leaflet (31b, 35b, 37b), and a third leaflet (31c, 35c, 37c), adjoining leaflets (31a-c, 35a-c, 37a-c) sewn together to form a first commissure point (41d, 43d, 45d), a second commissure point (41a, 43a, 45a), a third commissure point (41b, 43b, 45b), and a fourth commissure point (41c, 43c, 45c), and wherein the four commissure points (41a-d, 43a-d, 45a-d) are sewn to the frame (11, 13, 15, 17), such that the second leaflet (31b, 35b, 37b) extends across the center of the frame (11, 13, 15, 17). a valve body; and a self-expanding frame (11, 13, 15, 17), wherein the valve body includes a first leaflet (31a, 35a, 37a), a second leaflet (31b, 35b, 37b), and a third leaflet (31c, 35c, 37c), adjoining leaflets (31a-c, 35a-c, 37a-c) sewn together to form a first commissure point (41d, 43d, 45d), a second commissure point (41a, 43a, 45a), a third commissure point (41b, 43b, 45b), and a fourth commissure point (41c, 43c, 45c), and wherein the four commissure points (41a-d, 43a-d, 45a-d) are sewn to the frame (11, 13, 15, 17), such that the second leaflet (31b, 35b, 37b) extends across the center of the frame (11, 13, 15, 17).
A high viscosity jetting method wherein a liquid is jetted by a piezoelectric printhead through a nozzle; and wherein the jetting viscosity of the liquid is from 25 mPa.s to 1000 mPa.s; and wherein the method is characterized by: - a section of a nozzle (N s) has a shape comprising an outer edge (O E) with a minimum covering circle; and wherein the maximum distance from the outer edge (O E) to the centre (c) of the minimum covering circle is greater or equal than the minimum distance (d) from the outer edge (O E) to the centre (c) of the minimum covering circle times 1.2; and - wherein the high viscosity jetting method comprises a step of recirculating the liquid through the piezoelectric printhead. - a section of a nozzle (N s) has a shape comprising an outer edge (O E) with a minimum covering circle; and wherein the maximum distance from the outer edge (O E) to the centre (c) of the minimum covering circle is greater or equal than the minimum distance (d) from the outer edge (O E) to the centre (c) of the minimum covering circle times 1.2; and - wherein the high viscosity jetting method comprises a step of recirculating the liquid through the piezoelectric printhead.
A method for forming low melting point glass frit or fibers comprising: providing a glass feedstock comprising a low melting point glass, wherein the low melting point glass has a glass transition temperature of less than 450°C; and melt-spinning the glass feedstock to produce glass fibers by bringing a high rotary tool into contact with a surface of the glass feedstock, wherein the melt-spinning simultaneously melts and spins the glass feedstock to produce melted glass strands resulting in a glass wool-like composition; wherein the glass transition temperature of the glass fibers is less than or equal to 120% of the glass transition temperature of the glass feedstock. providing a glass feedstock comprising a low melting point glass, wherein the low melting point glass has a glass transition temperature of less than 450°C; and melt-spinning the glass feedstock to produce glass fibers by bringing a high rotary tool into contact with a surface of the glass feedstock, wherein the melt-spinning simultaneously melts and spins the glass feedstock to produce melted glass strands resulting in a glass wool-like composition; wherein the glass transition temperature of the glass fibers is less than or equal to 120% of the glass transition temperature of the glass feedstock.
Coupling for connecting construction parts, comprising a female coupling part and a male coupling part for placing in the female coupling part, the female coupling part comprising: - a receiving part which is at least partially tubular and comprises at its outer end an insertion opening for receiving the male coupling part in the tubular portion, wherein at least one through-opening is provided in the wall of the tubular portion of the receiving part; - a ball which is placed in the at least one through-opening and which is movable in radial direction of the receiving part; and - a locking sleeve which is screwed onto the receiving part and encloses the receiving part, wherein by being screwed the locking sleeve is movable relative to the receiving part in the longitudinal direction of the receiving part between an opened position, in which the locking sleeve allows a movement of the ball in the at least one through-opening in a direction away from the longitudinal axis of the receiving part for the purpose of placing the male coupling part into the receiving part or removing it from the receiving part during use, and a closed position in which the locking sleeve presses the at least one ball in the direction of the longitudinal axis of the receiving part for the purpose of locking the male coupling part in the female coupling part with the at least one ball during use, characterized in that the male coupling part is embodied as an elongate pin which comprises in its outer wall a groove for receiving the at least one ball. - a receiving part which is at least partially tubular and comprises at its outer end an insertion opening for receiving the male coupling part in the tubular portion, wherein at least one through-opening is provided in the wall of the tubular portion of the receiving part; - a ball which is placed in the at least one through-opening and which is movable in radial direction of the receiving part; and - a locking sleeve which is screwed onto the receiving part and encloses the receiving part, wherein by being screwed the locking sleeve is movable relative to the receiving part in the longitudinal direction of the receiving part between an opened position, in which the locking sleeve allows a movement of the ball in the at least one through-opening in a direction away from the longitudinal axis of the receiving part for the purpose of placing the male coupling part into the receiving part or removing it from the receiving part during use, and a closed position in which the locking sleeve presses the at least one ball in the direction of the longitudinal axis of the receiving part for the purpose of locking the male coupling part in the female coupling part with the at least one ball during use,
A graphene powder, wherein a compound having a catechol group adsorbs on graphene in a weight ratio of 5% or more and 50% or less relative to the graphene, and the element ratio of oxygen to carbon in the graphene powder measured by X-ray photoelectron spectroscopy is 0.06 or more and 0.20 or less, wherein the compound having a catechol group is 1 or 2 or more compounds selected from the group consisting of catechol, dopamine hydrochloride, dopa, noradrenalin, 3,4-dihydroxybenzoic acid, 3,4-dihydroxyphenylacetic acid, caffeic acid, 4-methylcatechol and 4-tert-butylpyrocatechol.
A cooling means for a motor vehicle having an internal combustion engine, comprising a coolant cooler through which air can flow, an axial fan arranged in the air flow direction downstream of the coolant cooler, a frame arranged between the coolant cooler and the axial fan having a frame ring in which the axial fan is rotatably arranged, wherein flow guidance elements running substantially in the radial direction are arranged in the air flow direction downstream of the axial fan (4, 4b), wherein the radial flow guidance elements have leading edges which are shaped in a straight manner and arranged in a radial plane and characterised in that the flow guidance elements have trailing edges which are curved in the circumferential direction.
An optical element comprising: a window formed of synthetic diamond material; and an optical surface pattern formed directly in a surface of the synthetic diamond material, the optical surface pattern comprising a plurality of projections separated by trenches, the projections spaced apart with a periodicity d, wherein the periodicity d is between 65 and 99% of a zeroeth order diffraction limit above which non zeroeth diffraction orders are observed at an operating wavelength λ, and wherein the optical surface pattern has a fill fraction in a range 0.1 to 0.6, the fill fraction defined as [area of projection in one periodic unit]/[area of the periodic unit]; wherein the window of synthetic diamond material is in the form of a wedged diamond window with non-parallel major surfaces defining a wedge angle in a range 1 arcminute to 60 arcminutes and the optical surface pattern is formed directly in one or both of the non-parallel major surfaces. a window formed of synthetic diamond material; and an optical surface pattern formed directly in a surface of the synthetic diamond material, the optical surface pattern comprising a plurality of projections separated by trenches, the projections spaced apart with a periodicity d, wherein the periodicity d is between 65 and 99% of a zeroeth order diffraction limit above which non zeroeth diffraction orders are observed at an operating wavelength λ, and wherein the optical surface pattern has a fill fraction in a range 0.1 to 0.6, the fill fraction defined as [area of projection in one periodic unit]/[area of the periodic unit]; wherein the window of synthetic diamond material is in the form of a wedged diamond window with non-parallel major surfaces defining a wedge angle in a range 1 arcminute to 60 arcminutes and the optical surface pattern is formed directly in one or both of the non-parallel major surfaces.
A steering lock device, comprising: a frame that includes a cylindrical section open at one end, and that houses a lock body which moves in and out of a steering column as a result of manipulation of a cylinder lock fixed in the cylindrical section; and a mounted member that is mounted in a mounting hole which is formed in a cut-out shape in the cylindrical section and open at one end to the open end of the cylindrical section, the steering lock device characterized in that: at opposite side edges of the mounting hole, to-be-locked parts are provided that restrict deformation of the mounting hole in a widening direction by being locked in a circumferential direction within the frame with locking parts of an inserted member inserted in the cylindrical section. a frame that includes a cylindrical section open at one end, and that houses a lock body which moves in and out of a steering column as a result of manipulation of a cylinder lock fixed in the cylindrical section; and a mounted member that is mounted in a mounting hole which is formed in a cut-out shape in the cylindrical section and open at one end to the open end of the cylindrical section, the steering lock device characterized in that: at opposite side edges of the mounting hole, to-be-locked parts are provided that restrict deformation of the mounting hole in a widening direction by being locked in a circumferential direction within the frame with locking parts of an inserted member inserted in the cylindrical section.
An electrode for nonaqueous electrolyte secondary batteries comprising: a collector; and a positive electrode active material layer that is arranged on the collector and contains a positive electrode active material, wherein the positive electrode active material is configured to contain compound particles which have a layered structure composed of two or more transition metals, and which have an average particle diameter DSEM of 1 to 7 μm based on the observation with an electron microscope, a ratio of the 50% particle diameter D50 in a volume-based cumulative particle size distribution to the average particle diameter DSEM (D50/DSEM) of 1 to 4, and a ratio of the 90% particle diameter D90 in the volume-based cumulative particle size distribution to the 10% particle diameter D10 in the volume-based cumulative particle size distribution (D90/D10) of 4 or less, and the positive electrode active material layer has a void fraction of 10 to 45%, and the positive electrode active material layer has density of 2.7 to 3.9 g/cm 3. a collector; and a positive electrode active material layer that is arranged on the collector and contains a positive electrode active material, wherein the positive electrode active material is configured to contain compound particles which have a layered structure composed of two or more transition metals, and which have an average particle diameter DSEM of 1 to 7 μm based on the observation with an electron microscope, a ratio of the 50% particle diameter D50 in a volume-based cumulative particle size distribution to the average particle diameter DSEM (D50/DSEM) of 1 to 4, and a ratio of the 90% particle diameter D90 in the volume-based cumulative particle size distribution to the 10% particle diameter D10 in the volume-based cumulative particle size distribution (D90/D10) of 4 or less, and the positive electrode active material layer has a void fraction of 10 to 45%, and the positive electrode active material layer has density of 2.7 to 3.9 g/cm 3.
A lighting device comprising: a housing having an open end and a central axis; a refractive optical element closing the open end of the housing, the optical element comprising a converging outer surface and a diffusing inner surface; a virtual point light source cooperating with said optical element, wherein said virtual point light source is disposed at the focal point of the refractive optical element, and a support disposed in the housing, the support including a plurality of LEDs disposed thereon, wherein the LEDs and the support are spaced inwardly from the focal point toward the refractive optical element so that the rays emanating from the LEDs follow substantially the same path as the light rays from the virtual point light source. a housing having an open end and a central axis; a refractive optical element closing the open end of the housing, the optical element comprising a converging outer surface and a diffusing inner surface; a virtual point light source cooperating with said optical element, wherein said virtual point light source is disposed at the focal point of the refractive optical element, and a support disposed in the housing, the support including a plurality of LEDs disposed thereon, wherein the LEDs and the support are spaced inwardly from the focal point toward the refractive optical element so that the rays emanating from the LEDs follow substantially the same path as the light rays from the virtual point light source.
A mobile station comprising: an inertial sensor, wherein the inertial sensor provides inertia measurements; an inertia measurement processor coupled to the inertial sensor to accept the inertia measurements and to determine an uncertainty based on the inertia measurements; and a navigation position filter coupled to the inertia measurement processor to receive the uncertainty and to determine a position estimate based on the uncertainty, wherein the navigation position filter comprises: a first position filter model to compute a first position estimate based on the uncertainty, a second position filter model to compute a second position estimate based on the uncertainty; and a switch configured to select one of the position estimates based on a characteristic of the uncertainty. an inertial sensor, wherein the inertial sensor provides inertia measurements; an inertia measurement processor coupled to the inertial sensor to accept the inertia measurements and to determine an uncertainty based on the inertia measurements; and a navigation position filter coupled to the inertia measurement processor to receive the uncertainty and to determine a position estimate based on the uncertainty, wherein the navigation position filter comprises: a first position filter model to compute a first position estimate based on the uncertainty, a second position filter model to compute a second position estimate based on the uncertainty; and a switch configured to select one of the position estimates based on a characteristic of the uncertainty. a first position filter model to compute a first position estimate based on the uncertainty, a second position filter model to compute a second position estimate based on the uncertainty; and a switch configured to select one of the position estimates based on a characteristic of the uncertainty.