mhurhangee/ep-ind-claims huggingface dataset:
An oxygen generator comprising: a housing; a chemical core within the housing, the chemical core being capable on ignition of producing oxygen by chemical reaction; an ignition apparatus within the housing for igniting the chemical core; a collection apparatus (7, 8) within the housing for collecting oxygen produced by the chemical core; wherein the ignition apparatus comprises: an ignition handle accessible from outside the housing, the ignition handle being arranged to be rotatable by hand; an ignition block disposed within the housing, the ignition block being arranged, when rotated in contact with the chemical core, to ignite the chemical core; a thermal isolator between the ignition handle and the ignition block, the thermal isolator being arranged to transmit rotational force from the ignition handle to the ignition block; wherein a first end of the thermal isolator is positioned within a slot in the ignition handle, and a second end of the thermal insulator opposite the first end is positioned within a slot in thermal block. a housing; a chemical core within the housing, the chemical core being capable on ignition of producing oxygen by chemical reaction; an ignition apparatus within the housing for igniting the chemical core; a collection apparatus (7, 8) within the housing for collecting oxygen produced by the chemical core; wherein the ignition apparatus comprises: an ignition handle accessible from outside the housing, the ignition handle being arranged to be rotatable by hand; an ignition block disposed within the housing, the ignition block being arranged, when rotated in contact with the chemical core, to ignite the chemical core; a thermal isolator between the ignition handle and the ignition block, the thermal isolator being arranged to transmit rotational force from the ignition handle to the ignition block; wherein a first end of the thermal isolator is positioned within a slot in the ignition handle, and a second end of the thermal insulator opposite the first end is positioned within a slot in thermal block. an ignition handle accessible from outside the housing, the ignition handle being arranged to be rotatable by hand; an ignition block disposed within the housing, the ignition block being arranged, when rotated in contact with the chemical core, to ignite the chemical core; a thermal isolator between the ignition handle and the ignition block, the thermal isolator being arranged to transmit rotational force from the ignition handle to the ignition block; wherein a first end of the thermal isolator is positioned within a slot in the ignition handle, and a second end of the thermal insulator opposite the first end is positioned within a slot in thermal block.
An elastic support structure comprising: an object including a blower, the blower having a vibration axis, wherein: the blower includes a diaphragm; and the diaphragm vibrates along the vibration axis, characterized by a first spring; a second spring; a third spring; and a fourth spring, wherein the object is suspended by the first spring, the second spring, the third spring, and the fourth spring, the first spring is connected to a first position of the object, the second spring is connected to a second position of the object, the third spring is connected to a third position of the object, the fourth spring is connected to a fourth position of the object, a virtual quadrangle is defined when viewed vertically from above, with the first position, the second position, the third position, and the fourth position being connected by virtual line segments, the first spring extends from the first position in a first direction to be away from the virtual quadrangle, the second spring extends from the second position in a second direction to be away from the virtual quadrangle, the third spring extends from the third position in a third direction to be away from the virtual quadrangle, the fourth spring extends from the fourth position in a fourth direction to be away from the virtual quadrangle, the first direction, the second direction, the third direction, and the fourth direction are each more than 45 degrees off a direction along the vibration axis, and the first direction, the second direction, the third direction, and the fourth direction each form an angle ranging between 30 degrees and 75 degrees, inclusive, with a vertical direction. the blower includes a diaphragm; and the diaphragm vibrates along the vibration axis, a first spring; a second spring; a third spring; and a fourth spring, the object is suspended by the first spring, the second spring, the third spring, and the fourth spring, the first spring is connected to a first position of the object, the second spring is connected to a second position of the object, the third spring is connected to a third position of the object, the fourth spring is connected to a fourth position of the object, a virtual quadrangle is defined when viewed vertically from above, with the first position, the second position, the third position, and the fourth position being connected by virtual line segments, the first spring extends from the first position in a first direction to be away from the virtual quadrangle, the second spring extends from the second position in a second direction to be away from the virtual quadrangle, the third spring extends from the third position in a third direction to be away from the virtual quadrangle, the fourth spring extends from the fourth position in a fourth direction to be away from the virtual quadrangle, the first direction, the second direction, the third direction, and the fourth direction are each more than 45 degrees off a direction along the vibration axis, and the first direction, the second direction, the third direction, and the fourth direction each form an angle ranging between 30 degrees and 75 degrees, inclusive, with a vertical direction.
A method of wireless communication by a user equipment, UE (952, 1052),, the method comprising: receiving a packet (972, 1072) when the UE is in a semi-persistent scheduling, SPS, mode and during an on-duration of a discontinuous reception, DRX, cycle; transmitting a negative-acknowledgement, NACK, message when the packet is not successfully decoded; and refraining from transmitting an acknowledgement, ACK, message when the packet is successfully decoded, characterised wherein the packet is received in bundled subframes when the UE is located distal to edges of its coverage area. receiving a packet (972, 1072) when the UE is in a semi-persistent scheduling, SPS, mode and during an on-duration of a discontinuous reception, DRX, cycle; transmitting a negative-acknowledgement, NACK, message when the packet is not successfully decoded; and refraining from transmitting an acknowledgement, ACK, message when the packet is successfully decoded, characterised wherein the packet is received in bundled subframes when the UE is located distal to edges of its coverage area.
A method for producing acrylamide comprising: supplying a raw material water to a reactor, wherein the raw material water is selected from water and an aqueous solution wherein an acid or salt are dissolved in water, supplying acrylonitrile to the reactor, and hydrating acrylonitrile using Rhodococcus rhodochrous J1 having nitrile hydratase activity as a biocatalyst to obtain a reaction mixture including acrylamide, wherein a temperature of the raw material water in supplying the raw material water to the reactor is equal to or more than freezing point of the raw material water and lower than the reaction temperature by 5 °C or more and the raw material water is used for the hydrating reaction of acrylonitrile, wherein a temperature of acrylonitrile in supplying acrylonitrile to the reactor is preferably equal to or more than freezing point of the raw material water and lower than the reaction temperature by 5 °C or more, the reaction temperature is 15 to 25° C, and a concentration of acrylamide with respect to the total mass of the reaction mixture including acrylamide after the step of hydration is 35 mass% or more. supplying a raw material water to a reactor, wherein the raw material water is selected from water and an aqueous solution wherein an acid or salt are dissolved in water, supplying acrylonitrile to the reactor, and hydrating acrylonitrile using Rhodococcus rhodochrous J1 having nitrile hydratase activity as a biocatalyst to obtain a reaction mixture including acrylamide, wherein a temperature of the raw material water in supplying the raw material water to the reactor is equal to or more than freezing point of the raw material water and lower than the reaction temperature by 5 °C or more and the raw material water is used for the hydrating reaction of acrylonitrile, wherein a temperature of acrylonitrile in supplying acrylonitrile to the reactor is preferably equal to or more than freezing point of the raw material water and lower than the reaction temperature by 5 °C or more, the reaction temperature is 15 to 25° C, and a concentration of acrylamide with respect to the total mass of the reaction mixture including acrylamide after the step of hydration is 35 mass% or more.
Method for synchronizing a plurality of optical sensors (1, 2, 3) in the course of calibrating the sensors (1, 2, 3), comprising the steps of: - capturing a calibration target by means of the sensors (1, 2, 3) at a first time at which light is emitted in a region at a first position of a multiplicity of predefined positions on the calibration target, - receiving a signal from a system assigned to one of the sensors (1, 2, 3) and, in response thereto: changing a position and/or pose of the calibration target, - modifying an optical appearance of the calibration target for the sensors (1, 2, 3), - capturing the calibration target by means of the sensors (1, 2, 3) at a second time, following the first time and the modification, at which the light is not emitted in the region at the first position of the multiplicity of predefined positions on the calibration target, and - determining whether information recorded by the sensors (1, 2, 3) when capturing (100, 300) the calibration target at the first time and the second time differs in order to synchronize the sensors (1, 2, 3). - capturing a calibration target by means of the sensors (1, 2, 3) at a first time at which light is emitted in a region at a first position of a multiplicity of predefined positions on the calibration target, - receiving a signal from a system assigned to one of the sensors (1, 2, 3) and, in response thereto: changing a position and/or pose of the calibration target, - modifying an optical appearance of the calibration target for the sensors (1, 2, 3), - capturing the calibration target by means of the sensors (1, 2, 3) at a second time, following the first time and the modification, at which the light is not emitted in the region at the first position of the multiplicity of predefined positions on the calibration target, and - determining whether information recorded by the sensors (1, 2, 3) when capturing (100, 300) the calibration target at the first time and the second time differs in order to synchronize the sensors (1, 2, 3).
Method for producing a heterojunction bipolar transistor by stacking epitaxed semiconductor layers, comprising the steps consisting of epitaxing, from a support, - at least one collector or respectively emitter layer, - at least one base layer not having sufficient rigidity to be self-supporting, and - at least one emitter or respectively collector layer, said layers having compositions causing a defect in mesh agreement giving rise to deformations, and the step consisting of epitaxing said collector or respectively emitter layer comprising the substeps consisting of epitaxing, in contact with said base layer, - at least one first sub-layer for balancing stresses and reducing said deformations, and - at least one second sub-layer on the side opposite to said base layer with respect to said first sub-layer, the method further comprising steps consisting of: - etching the layers higher than said emitter or respectively collector layer; and - etching said emitter or respectively collector layer, and the method further comprising steps consisting of: - carrying out deep sub-etching of said second sub-layer in order to reduce the base-collector capacitance; - filling, with an insulating material, the space left free by said sub-etching between said first collector or respectively emitter sub-layer and the layer situated below the second sub-layer. - at least one collector or respectively emitter layer, - at least one base layer not having sufficient rigidity to be self-supporting, and - at least one emitter or respectively collector layer, - at least one first sub-layer for balancing stresses and reducing said deformations, and - at least one second sub-layer on the side opposite to said base layer with respect to said first sub-layer, - etching the layers higher than said emitter or respectively collector layer; and - etching said emitter or respectively collector layer, - carrying out deep sub-etching of said second sub-layer in order to reduce the base-collector capacitance; - filling, with an insulating material, the space left free by said sub-etching between said first collector or respectively emitter sub-layer and the layer situated below the second sub-layer.
Arrangement of a fastening structure on a structural component of a motor vehicle, in the form of a plastic mounting support for fastening a radiator module, with a fiber inlay element arranged on a surface of the structural component, wherein the structural component has at least one opening for fixing an attachment by means of at least one fastening means, characterized in that the fastening structure has an inlay placement surface for the positioning of the fastening structure bearing flat against at least a partial region of the fiber inlay element, and the opening is arranged such that the inlay placement surface of the fastening structure is held bearing against the fiber inlay element with the aid of the at least one fastening means.
Assembly for a plug-in connector part, comprising a holding frame which has frame walls (31, 32) and a frame opening, which is delimited by the frame walls (31, 32), for receiving a plurality of modular contact inserts at a plurality insertion points which are lined up with one another along a width direction, and comprising at least one modular contact insert which can be inserted into the frame opening at at least one insertion point and has a housing body with at least one protruding element (420, 421), which is arranged on the housing body, for engaging into an associated recess (310, 320) on one of the frame walls (31, 32) of the holding frame, characterized in that the at least one modular contact insert has at least one slide element which is guided in a displaceable manner on the housing body and on which the at least one protruding element (420, 421) is arranged.
Use of a monoclonal antibody or antigen-binding fragment thereof, that specifically binds galectin1 comprising six CDRs: CDR-H1, CDR-H2, CDR-H3, CDR-L1, CDR-L2, and CDR-L3 for detecting the presence or level of a Gall polypeptide in vitro or ex vivo, wherein CDR-H1 consists of residues 31-35 of SEQ ID NO: 7, CDR-H2 consists of residues 50-66 of SEQ ID NO: 7, CDR-H3 consists of residues 99-107 of SEQ ID NO: 7, CDR-L1 consists of residues 23-36 of SEQ ID NO: 9, CDR-L2 consists of residues 52-58 of SEQ ID NO: 9, and CDR-L3 consists of residues 91-99 of SEQ ID NO: 9, preferably wherein the monoclonal antibody or antigen-binding fragment thereof forms a complex with a Gall polypeptide and the complex is detected in the form of an enzyme linked immunosorbent assay (ELISA), radioimmune assay, or immunochemically.
A cleaner including a dust collector configured to separate dust from air through centrifugation, comprising: the dust collector including: a dust collection case having an inlet through which air is introduced and an outlet through which the air is discharged; and at least one dust separator arranged to separate dust from the air introduced through the inlet, wherein a cleaning member is provided in the at least one dust separator such that the cleaning member cleans at least a portion of an inner wall of the at least one dust separator, and the at least one dust separator includes: an air inlet through which the air introduced through the inlet flows into the at least one dust separator, a dust outlet through which dust separated from the air is discharged, and at least one protrusion including an exhaust outlet through which the air from which dust is separated is exhausted outside and provided to be inserted into the air inlet, wherein the protrusion protrudes downward of the air inlet, and the air inlet and the dust outlet are arranged to face each other. a dust collection case having an inlet through which air is introduced and an outlet through which the air is discharged; and at least one dust separator arranged to separate dust from the air introduced through the inlet, wherein a cleaning member is provided in the at least one dust separator such that the cleaning member cleans at least a portion of an inner wall of the at least one dust separator, and the at least one dust separator includes: an air inlet through which the air introduced through the inlet flows into the at least one dust separator, a dust outlet through which dust separated from the air is discharged, and at least one protrusion including an exhaust outlet through which the air from which dust is separated is exhausted outside and provided to be inserted into the air inlet, wherein the protrusion protrudes downward of the air inlet, and the air inlet and the dust outlet are arranged to face each other. an air inlet through which the air introduced through the inlet flows into the at least one dust separator, a dust outlet through which dust separated from the air is discharged, and at least one protrusion including an exhaust outlet through which the air from which dust is separated is exhausted outside and provided to be inserted into the air inlet, wherein the protrusion protrudes downward of the air inlet, and the air inlet and the dust outlet are arranged to face each other.
An apparatus, comprising: a divided wall exchange column for heat and/or mass transfer processes having a longitudinal axis, an inner wall spaced apart from and surrounding the longitudinal axis, thereby being an interior space between the inner wall and the longitudinal axis; and a dividing wall disposed in the interior space, the dividing wall comprising a first plate having an outer surface and an inner surface opposite the outer surface, a second plate having an exterior surface and an interior surface opposite the exterior surface and spaced apart from the inner surface of the first plate, at least one projection (56; 56') fixedly connected to the inner surface of the first plate and adapted to be spaced apart from the interior surface of the second plate, and at least one another projection (56; 56') fixedly connected to the interior surface of the second plate, said another projection adapted to be spaced apart from the inner surface of the first plate and spaced apart laterally from the at least one projection, the dividing wall dividing the interior space into at least a first longitudinal space adjacent the outer surface of the first plate and a second longitudinal space adjacent the exterior surface of the second plate. a divided wall exchange column for heat and/or mass transfer processes having a longitudinal axis, an inner wall spaced apart from and surrounding the longitudinal axis, thereby being an interior space between the inner wall and the longitudinal axis; and a dividing wall disposed in the interior space, the dividing wall comprising a first plate having an outer surface and an inner surface opposite the outer surface, a second plate having an exterior surface and an interior surface opposite the exterior surface and spaced apart from the inner surface of the first plate, at least one projection (56; 56') fixedly connected to the inner surface of the first plate and adapted to be spaced apart from the interior surface of the second plate, and at least one another projection (56; 56') fixedly connected to the interior surface of the second plate, said another projection adapted to be spaced apart from the inner surface of the first plate and spaced apart laterally from the at least one projection, the dividing wall dividing the interior space into at least a first longitudinal space adjacent the outer surface of the first plate and a second longitudinal space adjacent the exterior surface of the second plate.
A compound, or pharmaceutically acceptable salt thereof, having a structure of Formula: wherein ring A comprises a 5-6-membered monocyclic heteroaryl ring or a 8-11-membered bicyclic heteroaryl ring having 1, 2, or 3 nitrogen ring atoms; L 1 is absent or C 1-2 alkylene; X 1 is NH-, -CH 2 NH-,or-NHCH 2; X 2 is NR 2; X 3 is NR 2; L 2 is C, O, CH 2, or CHOH; R 1 is H or halo; each R 2 is independently H or C 1-3 alkyl; R 3 is H, C 1-3 alkyl, C 3-6 cycloalkyl, aryl, C C 1-3 alkyl, C C 3-6 cycloalkyl, or C aryl; R 4 is OH, halo, C 1-4 alkyl, or C 1-4 alkoxy; and R 5 is H. ring A comprises a 5-6-membered monocyclic heteroaryl ring or a 8-11-membered bicyclic heteroaryl ring having 1, 2, or 3 nitrogen ring atoms; L 1 is absent or C 1-2 alkylene; X 1 is NH-, -CH 2 NH-,or-NHCH 2; X 2 is NR 2; X 3 is NR 2; L 2 is C, O, CH 2, or CHOH; R 1 is H or halo; each R 2 is independently H or C 1-3 alkyl; R 3 is H, C 1-3 alkyl, C 3-6 cycloalkyl, aryl, C C 1-3 alkyl, C C 3-6 cycloalkyl, or C aryl; R 4 is OH, halo, C 1-4 alkyl, or C 1-4 alkoxy; and R 5 is H.
Cast polyamide obtainable by the reaction of a) at least one catalyst for the anionic polymerization of lactams; b) at least one activator selected from the group of biurets and uretdiones for the anionic polymerization, c) at least one tert-amine and/or dibutyltin dilaurate as coactivator and d) at least one lactam at temperatures of at least 80°C to 130°C. a) at least one catalyst for the anionic polymerization of lactams; b) at least one activator selected from the group of biurets and uretdiones for the anionic polymerization, c) at least one tert-amine and/or dibutyltin dilaurate as coactivator and d) at least one lactam at temperatures of at least 80°C to 130°C.