mhurhangee/ep-ind-claims huggingface dataset:
Anti-friction bearing with at least one inner ring (4, 6), at least one outer ring and two rows of rolling bodies which roll between a first and a second raceway (12, 13) of the at least one inner ring (4, 6) and a first and a second raceway (14, 15) of the at least one outer ring, and with a housing, the outer ring being configured in one piece and having a radially extending integral mounting flange with a radially extending first axial contact face on the side of the housing, axially extending through openings for axially fastening the outer ring to a complementary contact face of the housing being arranged in the mounting flange, the outer ring which has the mounting flange having a first shoulder on the side of the first axial contact face, which first shoulder is formed by way of the first axial contact face and a cylindrical outer circumference face region, characterized in that the first axial contact face of the mounting flange is offset axially with regard to an outer axial end of the first raceway of the said outer ring by from 10% to 50%, in particular from 20% to 40%, of the overall width G of the raceways inwards in the direction of the second raceway of the said outer ring, the overall width G of the raceways (14, 15) being determined as an axial spacing of the opposite outer axial ends (26, 28) of the raceways (14, 15), and the ratio of the external diameter D of the mounting flange to the overall width G of the raceways having a value of between 5 and 25, in particular of between 14 and 16, and the cylindrical outer circumferential face region not bearing against the housing in the mounted state of the bearing.
A mould assembly for moulding a joint in an elongate article, the mould assembly comprising: a first mould part; a second mould part; a core mould element for mounting between the first and second mould parts (12; 14); a first thermal platen; and a second thermal platen, wherein the first and second mould parts (12; 14) and the core mould element are mounted between the first and second thermal platens (150; 120), and wherein each of the first and second mould parts (12; 14) is provided with thermal breaks (32; 62) between central (28; 58) and end parts (30; 60) thereof, and characterized in that: the first mould part is an upper mould part and comprises two side pieces (20, 21) and a raised central piece, each of the side pieces (20, 21) comprises a central part and two end parts with thermal breaks between the central and end parts thereof, and the raised central piece extends above the side pieces (20, 21) and connects to the central parts of the side pieces (20, 21). a first mould part; a second mould part; a core mould element for mounting between the first and second mould parts (12; 14); a first thermal platen; and a second thermal platen, wherein the first and second mould parts (12; 14) and the core mould element are mounted between the first and second thermal platens (150; 120), and wherein each of the first and second mould parts (12; 14) is provided with thermal breaks (32; 62) between central (28; 58) and end parts (30; 60) thereof, and characterized in that: the first mould part is an upper mould part and comprises two side pieces (20, 21) and a raised central piece, each of the side pieces (20, 21) comprises a central part and two end parts with thermal breaks between the central and end parts thereof, and the raised central piece extends above the side pieces (20, 21) and connects to the central parts of the side pieces (20, 21). the first mould part is an upper mould part and comprises two side pieces (20, 21) and a raised central piece, each of the side pieces (20, 21) comprises a central part and two end parts with thermal breaks between the central and end parts thereof, and the raised central piece extends above the side pieces (20, 21) and connects to the central parts of the side pieces (20, 21).
A vehicle seat core material constituted by an in-mold foamed molded product which is made of expanded particles of a thermoplastic resin and is embedded with an insert material, the vehicle seat core material comprising: a hollow space provided in a surface of the in-mold foamed molded product; an insert material exposed portion provided in the hollow space, the insert material exposed portion being an exposed portion of the insert material; a protrusion provided at a bottom of the hollow space so as to protrude through the bottom of the hollow space toward the insert material exposed portion; and a gap provided between the insert material exposed portion and the protrusion, wherein the expanded particles of a thermoplastic resin are expanded particles of a polypropylene resin. a hollow space provided in a surface of the in-mold foamed molded product; an insert material exposed portion provided in the hollow space, the insert material exposed portion being an exposed portion of the insert material; a protrusion provided at a bottom of the hollow space so as to protrude through the bottom of the hollow space toward the insert material exposed portion; and a gap provided between the insert material exposed portion and the protrusion, wherein the expanded particles of a thermoplastic resin are expanded particles of a polypropylene resin.
Extra-aural headphones comprising: a headband; a pair of movable struts extending from the headband; a pair of acoustic drivers, each acoustic driver being connected to the headband by one of the moveable struts and adapted to be suspended a distance away from a listener's ears, each of the movable struts being rotatable relative to the headband to move the acoustic drivers forward and rearward of the listener's ears between a plurality of test positions (60, 62); a rotation hub positioned along the headband, wherein the pair of acoustic drivers are rotatable about the rotation hub to a plurality of test angles relative to the listener's ears, wherein the pair of movable struts are connected to rotate about the rotation hub; and at least one microphone adapted to be positioned adjacent one of the listener's ears, wherein a user-specific head related transfer function (HRTF) is determined based on the signals received by the microphone when the acoustic drivers are driven at each of the plurality of test positions (60, 62). a headband; a pair of movable struts extending from the headband; a pair of acoustic drivers, each acoustic driver being connected to the headband by one of the moveable struts and adapted to be suspended a distance away from a listener's ears, each of the movable struts being rotatable relative to the headband to move the acoustic drivers forward and rearward of the listener's ears between a plurality of test positions (60, 62); a rotation hub positioned along the headband, wherein the pair of acoustic drivers are rotatable about the rotation hub to a plurality of test angles relative to the listener's ears, wherein the pair of movable struts are connected to rotate about the rotation hub; and at least one microphone adapted to be positioned adjacent one of the listener's ears, wherein a user-specific head related transfer function (HRTF) is determined based on the signals received by the microphone when the acoustic drivers are driven at each of the plurality of test positions (60, 62).
A method of producing a packaging material (21; 31) provided with decorative artwork for a package which, after filling and sealing, is intended, for purposes of extending shelf-life, to be subjected to a heat treatment at elevated temperature and high relative humidity, preferably under high pressure, the method comprising the steps of providing a web of paper or paperboard whose one surface has a printable coating (25; 35) of pigment and adhesive or binder, providing the printable coating (25; 35) with optional decorative artwork (26; 36) of printing ink and coating the web provided with decorative artwork with outer, heat-resistant coatings (15 and 16) of plastic, wherein the printable coating (25; 35) comprises pigments, of which at least 50% consist of calcium carbonate, and a binder which consists of an acrylic copolymer, and the coating also includes a substance possessing the capability of modifying the rheological properties of the printable coating (25; 35) ("rheology modifier"), which consists of an acrylic copolymer, wherein the printable coating includes a binder of a styrene acrylic copolymer in a quantity of 10-20 %, pigment of layered silicate mineral clay and calcium carbonate in an amount of 80-90%, and a rheology modifier in an amount of 0.1-1%, based on the total weight of the composition.
An exercise device, comprising: (a) a frame; (b) a first upper link and a second upper link, each pivotally coupled to the frame about a first axis; (c) a first lower link pivotally coupled to the first upper link at a location not collinear with the first axis and a second lower link pivotally coupled to the second upper link at a location not collinear with the first axis, the first lower link and the second lower link each including a foot support; (d) a transfer system coupled to the frame and including a first bar coupled to the first upper link and a second bar coupled to the second upper link, whereby the first bar and the second bar can transfer both tensile and compressive forces; and (e) a first torque element coupled to the frame and the first lower link and a second torque element coupled to the frame and the second lower link, whereby the first torque element and the second torque element operate to resist movement of the first lower link and the second lower link respectively, wherein the first torque element is operatively independent from the second torque element. (a) a frame; (b) a first upper link and a second upper link, each pivotally coupled to the frame about a first axis; (c) a first lower link pivotally coupled to the first upper link at a location not collinear with the first axis and a second lower link pivotally coupled to the second upper link at a location not collinear with the first axis, the first lower link and the second lower link each including a foot support; (d) a transfer system coupled to the frame and including a first bar coupled to the first upper link and a second bar coupled to the second upper link, whereby the first bar and the second bar can transfer both tensile and compressive forces; and (e) a first torque element coupled to the frame and the first lower link and a second torque element coupled to the frame and the second lower link, whereby the first torque element and the second torque element operate to resist movement of the first lower link and the second lower link respectively,
A method of controlling the AC output of a power converter connected to an AC power network subject to a voltage fault that causes a network voltage on the AC power network to drop below a normal operating level during a fault period, characterised by: estimating the phase angle of the voltage anticipated to be present on the AC power network when the network voltage recovers from the voltage fault; and controlling a current of the AC output during the voltage fault as a function of the phase angle estimated; wherein the network voltage has an amplitude and said estimating includes tracking the phase with a response time and changing the response time in inverse proportion to the amplitude of the network voltage. estimating the phase angle of the voltage anticipated to be present on the AC power network when the network voltage recovers from the voltage fault; and controlling a current of the AC output during the voltage fault as a function of the phase angle estimated; wherein the network voltage has an amplitude and said estimating includes tracking the phase with a response time and changing the response time in inverse proportion to the amplitude of the network voltage.
A container for liquid comprising: - a first storage level configured to store the liquid, - a second pressurization level configured to receive a gas to keep the first level pressurized, wherein the first and second levels can be stored flat when empty of liquid and gas wherein the first level includes a first pocket with a first non-return coupling portion, wherein the second level comprises a second pocket provided with a second non-return coupling portion, wherein the first coupling portion and/or the second coupling portion comprises: - a first coupling body, - a first base configured to move within the first coupling body - a first unsealed stop included within the first connector body to limit movement of the first base in a first direction of the first connector body, and - a first sealed shoulder included within the first connector body for limiting movement of the first base in a second direction of the first connector body and for preventing backflow of fluid from the first pocket and/or the second pocket, and - first means for connecting to a third coupling portion of a fluid injection and/or extraction system. - a first storage level configured to store the liquid, - a second pressurization level configured to receive a gas to keep the first level pressurized, wherein the first and second levels can be stored flat when empty of liquid and gas wherein the first level includes a first pocket with a first non-return coupling portion, wherein the second level comprises a second pocket provided with a second non-return coupling portion, wherein the first coupling portion and/or the second coupling portion comprises: - a first coupling body, - a first base configured to move within the first coupling body - a first unsealed stop included within the first connector body to limit movement of the first base in a first direction of the first connector body, and - a first sealed shoulder included within the first connector body for limiting movement of the first base in a second direction of the first connector body and for preventing backflow of fluid from the first pocket and/or the second pocket, and - first means for connecting to a third coupling portion of a fluid injection and/or extraction system. - a first coupling body, - a first base configured to move within the first coupling body - a first unsealed stop included within the first connector body to limit movement of the first base in a first direction of the first connector body, and - a first sealed shoulder included within the first connector body for limiting movement of the first base in a second direction of the first connector body and for preventing backflow of fluid from the first pocket and/or the second pocket, and - first means for connecting to a third coupling portion of a fluid injection and/or extraction system.
A sealing assembly comprising an expansion band including an arcuate band portion and a pair of threaded end portions (26A, 26B) disposed at opposing ends of said arcuate band portion, together with a first threaded component including oppositely-threaded ends (42, 44) respectively threadably engaged with said pair of threaded end portions (26A, 26B), such that rotation of said first threaded component in a first direction causes said pair of threaded end portions (26A, 26B) to be simultaneously driven apart from one another to thereby expand a diameter (D C) of said arcuate band portion, wherein said pair of threaded end portions (26A, 26B) each include a second threaded component (28A, 28B) captured therewithin, each said second threaded component (28A, 28B) having threads opposed to the threads (42, 44) of a respective end of said first threaded component, wherein said arcuate band portion and said threaded end portions (26A, 26B) are monolithically formed as a single part, characterized in that the material of said end portions (26A, 26B) progressively thickens starting at respective junctions between said arcuate band portion and said end portions (26A, 26B) and advancing toward respective terminal end surfaces (29A, 29B) of said expansion band.
A workpiece unit, comprising: a workpiece body having a protruding portion; and a holding member arranged on at least a part of an outer side of the protruding portion, wherein the holding member is bonded to the workpiece body via an adhesive; the workpiece body itself has the protruding portion; the workpiece body is integrated with the holding member; at least the holding member is held to a processing apparatus, to hold or fix the workpiece unit to the processing apparatus; information is added to the holding member; the workpiece body has a first surface, a second surface arranged on a side opposite to the first surface, and an outer circumferential portion provided between the first and second surfaces; the protruding portion is arranged on the outer circumferential portion, and the protruding portion is continuously arranged along the outer circumferential portion of the workpiece body. a workpiece body having a protruding portion; and a holding member arranged on at least a part of an outer side of the protruding portion, wherein the holding member is bonded to the workpiece body via an adhesive; the workpiece body itself has the protruding portion; the workpiece body is integrated with the holding member; at least the holding member is held to a processing apparatus, to hold or fix the workpiece unit to the processing apparatus; information is added to the holding member; the workpiece body has a first surface, a second surface arranged on a side opposite to the first surface, and an outer circumferential portion provided between the first and second surfaces; the protruding portion is arranged on the outer circumferential portion, and the protruding portion is continuously arranged along the outer circumferential portion of the workpiece body.
A cardiac rhythm management device (600, 700), comprising: electrodes (641, 642, 651, 652, 653, 654, 655, 656, 725) electrically coupled to multiple chambers of a heart; sensing circuitry configured to sense cardiac electrical signals via the electrodes and to detect cardiac signal features associated with cardiac events; measurement circuitry coupled to the sense circuitry and configured to measure one or more cardiac intervals, including an atrioventricular interval between an atrial event and a ventricular depolarization for at least one ventricule, characterised by said measurement circuitry being further adapted to measure an atrial to early ventricular activation interval (AV EA) between an atrial event and early activation of a ventricular depolarization for the ventricle; optimization circuitry configured to calculate an optimal AV delay based on the measured atrioventricular intervals and to calculate an early activation pacing interval for the ventricle by subtracting the measured AV EA from the calculated optimal AV delay; a pacing interval controller configured to start the early activation pacing interval responsive to sensing early activation of the ventricle; and pacing therapy circuitry configured to pace the ventricle relative to expiration of the early activation pacing interval. electrodes (641, 642, 651, 652, 653, 654, 655, 656, 725) electrically coupled to multiple chambers of a heart; sensing circuitry configured to sense cardiac electrical signals via the electrodes and to detect cardiac signal features associated with cardiac events; measurement circuitry coupled to the sense circuitry and configured to measure one or more cardiac intervals, including an atrioventricular interval between an atrial event and a ventricular depolarization for at least one ventricule, characterised by said measurement circuitry being further adapted to measure an atrial to early ventricular activation interval (AV EA) between an atrial event and early activation of a ventricular depolarization for the ventricle; optimization circuitry configured to calculate an optimal AV delay based on the measured atrioventricular intervals and to calculate an early activation pacing interval for the ventricle by subtracting the measured AV EA from the calculated optimal AV delay; a pacing interval controller configured to start the early activation pacing interval responsive to sensing early activation of the ventricle; and pacing therapy circuitry configured to pace the ventricle relative to expiration of the early activation pacing interval.
A connecting element (1, 301) with a housing (2, 302) having a first receiving space (16, 316) with a first joining element (13, 313) and a first shiftable valve element (18, 318) arranged therein, and having a second receiving space (23, 323) with a second joining element (8, 308) with a second shiftable valve element (31, 331) arranged therein, wherein the first and the second receiving space (16, 316, 23, 323) are fluidically connected to each other, wherein the first valve element (18, 318) is of elastically deformable design and is shiftable and the second valve element (31, 331) is of elastically deformable design and is shiftable, wherein the first valve element (18, 318) is shiftable between two positions, wherein, in the first position, a fluidic connection between the first receiving space (16, 316) and the first joining element (13, 313) is interrupted by the first valve element (18, 318) and, in the second position, a fluidic connection between the first receiving space (16, 316) and the first joining element (13, 313) is opened by the first valve element (18, 318) and wherein the second valve element (31, 331) is shiftable between two positions, wherein, in the first position, a fluidic connection between the second receiving space (23, 323) and the second joining element (8, 308) is interrupted by the second valve element (31, 331) and, in the second position, a fluidic connection between the second receiving space (23, 323) and the second joining element (8, 308) is opened by the second valve element (31, 331) wherein the first valve element (18, 318) is formed with a duct (29, 329) which is closed in the first position of the first valve element (18, 318) and is opened in the second position of the first valve element (18, 318), wherein a hollow pin (20, 320) is arranged in the first receiving space (16, 316) and engages in the duct (29, 329), characterised in that the first valve element (18, 318) has spring arms (25, 325) protruding from the cylindrical region (24, 324).
A terminal fitting, comprising a substantially box-shaped main portion including a first wall, a pair of second and third walls (25, 26) projecting from the first wall, a fourth wall projecting from the second wall toward the third wall while substantially facing the first wall and an outer wall projecting from third wall toward the second wall and at least partly placed on the outer side of the fourth wall, wherein the outer wall has at least one latching portion at least partly arranged between the second and third walls (25, 26) and projecting substantially toward the first wall and the fourth wall has at least one escaping portion for at least partly receiving the latching portion, the latching portion being engageable with at least part of the peripheral edge of the escaping portion, and wherein the outer wall has at least one retaining-portion engaging portion to be engaged with at least one retaining portion of a connector housing, charaterized in that the latching portion is arranged at a position adjacent to the retaining-portion engaging portion, so that the latching portion is substantially in flush with the rear part of the outer wall, wherein the latching portion is provided at the leading end of the outer wall, and at least one stabilizer projecting outward along the second wall is formed at a part of the leading end of the second wall substantially facing the escaping portion, wherein the rear end surface of the retaining-portion engaging portion is substantially in flush with the stabilizer provided on the second wall.
An animal protein-free medium composition for use in the culture of Clostridium botulinum, the medium composition comprising: plant-derived peptones comprising a garden pea hydrolysate, a cotton seed hydrolysate and a wheat gluten hydrolysate with a ratio of 1:0.24-43.62:0.01-50.57 by weight; a carbon source; and at least one mineral selected from the group consisting of K 2 HPO 4 (dipotassium phosphate), Na 2 HPO 4 (disodium phosphate) and KH 2 PO 4 (monopotassium phosphate).