mhurhangee/ep-ind-claims huggingface dataset:
A scroll compressor comprising: a fixed scroll fixed to a frame; an orbiting scroll that forms a compression chamber by performing an orbital motion with respect to the fixed scroll; and an electric motor that drives the orbiting scroll via a crankshaft; a rolling bearing part provided on the lower side from a flange portion of the crankshaft that rotatably supports a main shaft part of the crankshaft, wherein the compressor further has a thrust stopper, provided between the flange portion and the rolling bearing part, in contact with the flange portion on the upper side and in contact with the rolling bearing part on the lower side, and, assuming that an outer diameter of the flange portion is ΦDt and an outer diameter of the thrust stopper is ΦDs, ΦDt<ΦDs holds characterized by a chamfered part provided on an inner diameter side of an inner ring of the rolling bearing in an upper part of the inner ring, and, assuming that the inner diameter of the inner ring is ΦDb and a minimum distance from an inner peripheral side end in a flat upper surface of the inner ring to an inner peripheral surface of the inner ring facing a main shaft part of the crankshaft is Rc, ΦDb+Rc×2<ΦDs holds. a fixed scroll fixed to a frame; an orbiting scroll that forms a compression chamber by performing an orbital motion with respect to the fixed scroll; and an electric motor that drives the orbiting scroll via a crankshaft; a rolling bearing part provided on the lower side from a flange portion of the crankshaft that rotatably supports a main shaft part of the crankshaft, wherein the compressor further has a thrust stopper, provided between the flange portion and the rolling bearing part, in contact with the flange portion on the upper side and in contact with the rolling bearing part on the lower side, and, assuming that an outer diameter of the flange portion is ΦDt and an outer diameter of the thrust stopper is ΦDs, ΦDt<ΦDs holds characterized by a chamfered part provided on an inner diameter side of an inner ring of the rolling bearing in an upper part of the inner ring, and, assuming that the inner diameter of the inner ring is ΦDb and a minimum distance from an inner peripheral side end in a flat upper surface of the inner ring to an inner peripheral surface of the inner ring facing a main shaft part of the crankshaft is Rc, ΦDb+Rc×2<ΦDs holds.
A method for analyzing of a divided wavefront of a light beam, said divided wavefront being a surface consisting of the discontinuous application of the surface parts having differences in level between parts, wherein a) a diffraction grating with a two-dimensional meshing is positioned in one plane (P C) on the path of the beam to cause the beam to be diffracted into different sub-beams (R1, R2) due to the diffraction orders; b) there are created and observed in planes (P S) parallel to the plane of the grating at least two interferograms formed by the interference of at least two sub-beams (R1, R2), each interferogram being implemented with a different color, the interferograms being deformed by deformations depending on increase rates of the incident wavefront, said increase rates being proportional to said differences and the interferograms having discontinuities exhibited by a spatial translation of a fragment of sinusoid; c) the spatial translation shift between the intensity profiles of the deformed interferograms corresponding to the two different colors is measured processed for deriving from it at least one increase rate of the wavefront in order to analyze the wavefront. a) a diffraction grating with a two-dimensional meshing is positioned in one plane (P C) on the path of the beam to cause the beam to be diffracted into different sub-beams (R1, R2) due to the diffraction orders; b) there are created and observed in planes (P S) parallel to the plane of the grating at least two interferograms formed by the interference of at least two sub-beams (R1, R2), each interferogram being implemented with a different color, the interferograms being deformed by deformations depending on increase rates of the incident wavefront, said increase rates being proportional to said differences and the interferograms having discontinuities exhibited by a spatial translation of a fragment of sinusoid; c) the spatial translation shift between the intensity profiles of the deformed interferograms corresponding to the two different colors is measured processed for deriving from it at least one increase rate of the wavefront in order to analyze the wavefront.
A fuse comprising: a fuse body formed of electrically insulating material defining a cavity extending from a first end of the fuse body to a second end of the fuse body; a fusible element disposed within the cavity and extending from a first end face (126-A) of the first end of the fuse body to a second end face (126-B) of the second end of the fuse body; a metalized coating (160-A, 160-B) disposed on the first (126-A) and second (126-B) end faces of the fuse body in electrical contact with a respective end (130-A, 130-B) of the fusible element for facilitating electrical connections between the fusible element and a first (50-A) and second end (50-B) terminations; a first portion of the fusible element proximate to a first end (130-A) of the fusible element, the first portion is disposed between a first insulated plug (140-A) and an inside surface of the cavity; the first end (130-A) of the fusible element extending out from the cavity at the first end of the fuse body and bent away from the first insulated plug (140-A), wherein the first end (130-A) of the fusible element is disposed on and terminates at the first end face (126-A) of the fuse body and in electrical contact with the metalized coating disposed on the first end face (126-A); a second portion of the fusible element proximate to a second end (130-B) of the fusible element, the second portion is disposed between a second insulated plug (140-B) and an inside surface of the cavity; the second end (130-B) of the fusible element extending out from the cavity at the second end of the fuse body and bent away from the second insulated plug (140-B), wherein the second end (130-B) of the fusible element is disposed on and terminates at the second end face (126-B) of the fuse body and in electrical contact with the metalized coating disposed on the second end face (126-B); the first (140-A) and second (140-B) insulated plugs bonded to an internal surface of the cavity at the first and second ends wherein the first (140-A) and second (140-B) insulated plugs form a seal closing the cavity; and wherein the first (150-A) and second (150-B) end terminations are formed of an electrically conductive paste layer deposited on a surface of respective insulated plugs (140-A, 140-B) at the first and second ends of the fuse body, the first end termination (150-A) in electrical contact with the first end (130-A) of the fusible element and the metalized coating (160-A) at the first end face (126-A) and the second end termination (150-B) in electrical contact with the second end (130-B) of the fusible element and the metalized coating (160-A) at the second end face (126-B).
Injection device comprising a housing having a distal end and a proximal end and an abutment surface provided near the proximal end of the housing, said abutment surface extending at least partially around a perimeter of said housing and facing away from said distal end and at least one engagement structure provided at the abutment surface, wherein the injection device further comprises: - a cap which is removably attached to said proximal end of the housing, said cap having a proximal end and a distal end and is provided with an opening at said distal end; - wherein internal dimensions of said opening correspond to the outer dimensions of the proximal end of the housing to allow said cap to be slipped onto the proximal end of the housing; - characterized in that a first lifting pole is pivotally arranged within the cap, said first lifting pole being pivotally connected to the cap at a proximal end by a pivotal connection and being arranged to bear against the abutment surface at a distal end when the cap is in a fully attached position on the housing; - wherein the first lifting pole extends from the abutment surface to the pivotal connection to the cap along an axis which is inclined in relation to a longitudinal axis of the housing when the cap is in said fully attached position; and - wherein relative rotational movement between the cap and the housing in a first direction around said longitudinal axis will cause the distal end of the first lifting pole to engage with the engagement structure and bring about an alignment of the first lifting pole with the longitudinal axis of the housing thus causing axial displacement of the cap relative to the housing towards a detached position of the cap. - a cap which is removably attached to said proximal end of the housing, said cap having a proximal end and a distal end and is provided with an opening at said distal end; - wherein internal dimensions of said opening correspond to the outer dimensions of the proximal end of the housing to allow said cap to be slipped onto the proximal end of the housing; - characterized in that a first lifting pole is pivotally arranged within the cap, said first lifting pole being pivotally connected to the cap at a proximal end by a pivotal connection and being arranged to bear against the abutment surface at a distal end when the cap is in a fully attached position on the housing; - wherein the first lifting pole extends from the abutment surface to the pivotal connection to the cap along an axis which is inclined in relation to a longitudinal axis of the housing when the cap is in said fully attached position; and - wherein relative rotational movement between the cap and the housing in a first direction around said longitudinal axis will cause the distal end of the first lifting pole to engage with the engagement structure and bring about an alignment of the first lifting pole with the longitudinal axis of the housing thus causing axial displacement of the cap relative to the housing towards a detached position of the cap.
Teat cup liner with a hose part and a teat cup liner head which limits a head space and into a device is integrated which is designed in such a way that it undergoes a structural change which can be detected from the outside when a threshold vacuum in the head space is exceeded, wherein the device comprises a membrane-like element which bulges inwards when an excessive limit value of a head vacuum which interferes with the milking process is exceeded, and the membrane-like element is integrally formed on the teat cup liner head or is inserted as a separate component in the teat cup liner head.
A method for the attachment of a bracket to a panel structure comprising: i. providing an epoxy resin adhesive for attaching the bracket to the panel structure; ii. placing the bracket in a desired location on the panel structure; iii. heating the adhesive; and iv. hardening the adhesive so the bracket is adhered to the panel structure, characterised in that the epoxy resin adhesive is reformable. i. providing an epoxy resin adhesive for attaching the bracket to the panel structure; ii. placing the bracket in a desired location on the panel structure; iii. heating the adhesive; and iv. hardening the adhesive so the bracket is adhered to the panel structure, characterised in that the epoxy resin adhesive is reformable.
A turbine section of a gas turbine engine, the turbine section being annular about a longitudinal axis, the turbine section comprising: a first turbine with a first inlet and a first outlet; a second turbine with a second inlet and a second outlet; an inter-turbine duct extending from the first outlet to the second inlet and configured to direct an air flow from the first turbine to the second turbine wherein the inter-turbine duct is defined by a shroud extending between the first outlet and the second inlet and a hub extending between the first outlet and the second inlet; at least one strut extending from in the shroud in a radial direction; a first guide vane disposed within the inter-turbine duct and secured to the shroud with the at least one strut, wherein the first guide vane generally extends in an axial-circumferential plane, is annular and axi-symmetric about the longitudinal axis and the first guide vane is a splitter; and a second guide vane that generally extends in a radial-axial plane and extends from the shroud, wherein the shroud and the hub are separated in a radial direction at a first distance, the first guide vane being spaced from the shroud in the radial direction at less than 50% of the first distance and the second guide vane extends from the shroud at a height that is less than 50% of the first distance. a first turbine with a first inlet and a first outlet; a second turbine with a second inlet and a second outlet; an inter-turbine duct extending from the first outlet to the second inlet and configured to direct an air flow from the first turbine to the second turbine wherein the inter-turbine duct is defined by a shroud extending between the first outlet and the second inlet and a hub extending between the first outlet and the second inlet; at least one strut extending from in the shroud in a radial direction; a first guide vane disposed within the inter-turbine duct and secured to the shroud with the at least one strut, wherein the first guide vane generally extends in an axial-circumferential plane, is annular and axi-symmetric about the longitudinal axis and the first guide vane is a splitter; and a second guide vane that generally extends in a radial-axial plane and extends from the shroud, wherein the shroud and the hub are separated in a radial direction at a first distance, the first guide vane being spaced from the shroud in the radial direction at less than 50% of the first distance and the second guide vane extends from the shroud at a height that is less than 50% of the first distance.
A valve system, in particular for controlling the liquid flow in a plant for central heating, which system comprises: one or more programmable regulator units, valve bodies and various inserts with different flow characteristics, said valve bodies are provided with one of said various inserts, said one insert concerned having specific flow characteristics, said various inserts comprising two types of units with regulable openings (14,15), said units being provided with means for regulating the liquid flow, an applied change in the area of the openings of the one unit bringing about a change in the differential pressure over the openings of that unit, whereby the area of the openings of the other unit is changed in response thereto, said various inserts being furthermore provided with means for the applied change in area by means of an activator that comprises an end which is exposed to the surroundings, said one or more programmable regulator units being provided with a motor and comprising coupling means adapted to complementary coupling means on the valve bodies to the effect that the motor of the one or more programmable regulator units is coupled to the end of the activator on the insert concerned, said one or more programmable regulator units being programmed to regulate the activator depending on and in accordance with the specific flow characteristics of said one insert concerned and hence the liquid flow through the valve body coupled to the programmable regulator unit.
A photobase generator, comprising a salt represented by general formula: in general formula, R 1 to R 4 independently represent a group represented by general formula: - -Ar 1 or Ar, wherein at least one of R 1 to R 4 represents a group represented by general formula, and Ar represents a phenyl group or a naphthyl group; represents a divalent group having at least one bond through which the boron element is bonded, and is a group selected from the group comprising an ether, a sulfide, a carboxylic acid ester, an alkylene having 1 to 18 carbon atoms and an arylene having 6 to 14 carbon atoms which may contain a hetero atom, and Ar 1 represents a group selected from the group consisting of anthryl, anthraquinonyl, thioxanthonyl, benzoquinonyl, naphthoquinonyl, pyrenyl, perylenyl, tetracenyl, phenothiazinyl, 4-benzoyl-phenylthiophenyl, carbazolyl, chrysenyl, phenanthryl, and xanthonyl; Y + represents an ammonio group selected from the group of general formulas to below: wherein in formula, R 37 represents an alkyl group having 1 to 18 carbon atoms, an alkenyl group having 2 to 18 carbon atoms or an aryl group having 6 to 14 carbon atoms, R 38 represents an alkyl group having 1 to 18 carbon atoms, and R 37 and R 38 may be bonded to each other to form a ring structure; and E represents a group represented by general formula below, wherein R 28 to R 32 independently represent a hydrogen atom, an alkyl group having 1 to 8 carbon atoms, a nitro group, an alkoxy group represented by -OR 39, an acyl group represented by R 40 CO-, an alkylthio group represented by -SR 42, or a halogen atom, wherein R 39, R 40 and R 42 independently represent an alkyl group having 1 to 8 carbon atoms or an aryl group having 6 to 14 carbon atoms, represents a divalent group represented by general formula or general formula, and R 33 to R 36 independently represent a hydrogen atom, an alkyl group having 1 to 18 carbon atoms or an aryl group having 6 to 14 carbon atoms, and may be the same as or different from one another.
Method for identifying a pressure measurement signal in a capacitive pressure measurement cell having a base body and a measurement membrane arranged on the front side of the base body, wherein electrodes (7, 9, 11) are arranged on the base body and on the measurement membrane, which electrodes form a measurement capacitance (C m) in a region of the measurement membrane having a high pressure sensitivity and a reference capacitance (C r) in a region of the measurement membrane having a lower pressure sensitivity, wherein the measurement capacitance (C m) and the reference capacitance (C r) are detected independently of one another and the pressure measurement signal is identified in a first measurement region according to a first evaluation from the measurement capacitance (C m) and the reference capacitance (C r) and the pressure measurement signal is identified in a second measurement region according to a second evaluation from the reference capacitance (C r), characterized in that a transition from the first evaluation to the second evaluation takes place when the pressure measurement signal according to the first evaluation exceeds a limit value (x).
A vehicle trim component comprising: a flexible substrate; and characterized by an ink layer disposed on the substrate and that provides an appearance differing from the appearance of the substrate, wherein the ink layer is a flexible layer that is configured to substantially maintain the appearance as the substrate is cycled. a flexible substrate; and characterized by an ink layer disposed on the substrate and that provides an appearance differing from the appearance of the substrate, wherein the ink layer is a flexible layer that is configured to substantially maintain the appearance as the substrate is cycled.
A method of forming a plurality of semiconductor chip packages, said method comprising: a) providing a substrate panel to be singulated into substrates each for an individual one of said plurality of semiconductor chip packages, said substrate panel having a first coefficient of thermal expansion; b) providing a carrier for supporting said substrate panel, as components are mounted thereto, said carrier having a second CTE that is less than said first CTE; c) heating said substrate panel and said carrier to first and second elevated temperatures respectively; d) mounting said substrate panel at about said first elevated temperature to said carrier, said carrier being at about said second elevated temperature, to provide a connection between said carrier and said substrate panel; e) affixing a stiffener panel to said substrate panel such that said substrate panel is positioned between said carrier and said stiffener panel; f) cooling said carrier and said substrate panel from said first and second elevated temperatures thereby putting said substrate panel into tension in at least one direction; g) detaching said carrier from said substrate panel; and wherein the method further comprises: mounting and electrically connecting a plurality of dies to said substrate panel, when said substrate panel is on said carrier; and under-filling said plurality of dies with said stiffener panel affixed to said substrate panel. a) providing a substrate panel to be singulated into substrates each for an individual one of said plurality of semiconductor chip packages, said substrate panel having a first coefficient of thermal expansion; b) providing a carrier for supporting said substrate panel, as components are mounted thereto, said carrier having a second CTE that is less than said first CTE; c) heating said substrate panel and said carrier to first and second elevated temperatures respectively; d) mounting said substrate panel at about said first elevated temperature to said carrier, said carrier being at about said second elevated temperature, to provide a connection between said carrier and said substrate panel; e) affixing a stiffener panel to said substrate panel such that said substrate panel is positioned between said carrier and said stiffener panel; f) cooling said carrier and said substrate panel from said first and second elevated temperatures thereby putting said substrate panel into tension in at least one direction; g) detaching said carrier from said substrate panel; and wherein the method further comprises: mounting and electrically connecting a plurality of dies to said substrate panel, when said substrate panel is on said carrier; and under-filling said plurality of dies with said stiffener panel affixed to said substrate panel. mounting and electrically connecting a plurality of dies to said substrate panel, when said substrate panel is on said carrier; and under-filling said plurality of dies with said stiffener panel affixed to said substrate panel.