mhurhangee/ep-ind-claims huggingface dataset:
Rechargeable battery pack consisting of a plurality of individual battery cells (1 to 16), - wherein the battery cells (1 to 16) are arranged side by side, - and the battery cells (1 to 16) have contact terminals (17, 18) on a lateral surface, - wherein contact terminals (17, 18) to be connected electrically are connected to one another mechanically and electrically via a contact profile, - and the contact profile is held in a base, - in which at least one cooling passage is formed, - and the contact profile bounds the cooling passage, - wherein a cooling passage section is formed along a contact profile and the cooling passage section is a part of the cooling passage in the base, - characterised in that the cooling passage section of the contact profile is designed as a closed passage with an inflow and an outflow, - and the passage thus formed is arranged in line with the cooling passage in the base, - and in the direction of flow of a cooling medium all cooling passage sections of the contact profiles are arranged one behind the other and are a part of the cooling passage in the base. - wherein the battery cells (1 to 16) are arranged side by side, - and the battery cells (1 to 16) have contact terminals (17, 18) on a lateral surface, - wherein contact terminals (17, 18) to be connected electrically are connected to one another mechanically and electrically via a contact profile, - and the contact profile is held in a base, - in which at least one cooling passage is formed, - and the contact profile bounds the cooling passage, - wherein a cooling passage section is formed along a contact profile and the cooling passage section is a part of the cooling passage in the base, - characterised in that the cooling passage section of the contact profile is designed as a closed passage with an inflow and an outflow, - and the passage thus formed is arranged in line with the cooling passage in the base, - and in the direction of flow of a cooling medium all cooling passage sections of the contact profiles are arranged one behind the other and are a part of the cooling passage in the base.
A chewy confectionery product which is substantially free of the texturizing agents gelatin, starch and egg white (albumin); the chewy confectionery comprising pectin at a minimum of 0.2 percent by weight on a dry basis of the chewy confectionery product; sweetener comprising sucrose wherein said chewy confectionery product comprises 20 to 80 percent by weight of sucrose on a dry basis; and wherein said chewy confectionery product has a water content of 3 to 13 percent. the chewy confectionery comprising pectin at a minimum of 0.2 percent by weight on a dry basis of the chewy confectionery product; sweetener comprising sucrose wherein said chewy confectionery product comprises 20 to 80 percent by weight of sucrose on a dry basis; and wherein said chewy confectionery product has a water content of 3 to 13 percent.
An apparatus for exposing a substance to conditions, the apparatus including: a) an array of wells including a number of well channels, each well channel including a plurality of wells spaced apart along the well channel, the wells containing a substance in use; b) a plurality of inlet sets (311, 312; 313, 314; 315, 316), each inlet set (311, 312; 313, 314; 315, 316) including first inlets (311, 313, 315) and second inlets (312, 314, 316) that receive respective first and second fluids; and, c) channels coupled to the inlets (311, 312, 313, 314, 315, 316) that selectively supply one or more fluids to each well channel to thereby expose the substance to different conditions allowing a response of the substance to the conditions to be determined, wherein each channel divides to supply fluid to at least two well channels, characterised in that: i) at least two channels combine to supply a mixture of fluids to at least one well channel; and, ii) the apparatus includes a substrate and a cover layer, wherein the cover layer includes a first and second layer (301, 302), and wherein at least some inlets (313, 314, 315, 316) are provided in the second layer for supplying respective fluids to channels in the first layer via channels in the second layer, and wherein the wells are defined in at least one of the substrate and the cover layer (303; 301, 302). a) an array of wells including a number of well channels, each well channel including a plurality of wells spaced apart along the well channel, the wells containing a substance in use; b) a plurality of inlet sets (311, 312; 313, 314; 315, 316), each inlet set (311, 312; 313, 314; 315, 316) including first inlets (311, 313, 315) and second inlets (312, 314, 316) that receive respective first and second fluids; and, c) channels coupled to the inlets (311, 312, 313, 314, 315, 316) that selectively supply one or more fluids to each well channel to thereby expose the substance to different conditions allowing a response of the substance to the conditions to be determined, wherein each channel divides to supply fluid to at least two well channels, i) at least two channels combine to supply a mixture of fluids to at least one well channel; and, ii) the apparatus includes a substrate and a cover layer, wherein the cover layer includes a first and second layer (301, 302), and wherein at least some inlets (313, 314, 315, 316) are provided in the second layer for supplying respective fluids to channels in the first layer via channels in the second layer, and wherein the wells are defined in at least one of the substrate and the cover layer (303; 301, 302).
Focusing system for focusing an electromagnetic beam for three-dimensional random access applications, the system comprising a first pair of acousto-optic deflectors for focusing the electromagnetic beam in an X-Z plane, and a second pair of acousto-optic deflectors for focusing the electromagnetic beam in a Y-Z plane being substantially perpendicular to the X-Z plane, characterised in that the second pair of acousto-optic deflectors are arranged between the acousto-optic deflectors (12, 12') of the first pair of acousto-optic deflectors, such that when the electromagnetic beam passes the focusing system it passes all four acousto-optic deflectors (12, 12', 22, 22') and the first and fourth acousto-optic deflectors (12, 12') passed by the electromagnetic beam belong to the first pair of acousto-optic deflectors and the second and third acousto-optic deflectors (22, 22') passed by the electromagnetic beam belong to the second pair of acousto-optic deflectors.
An apparatus for capturing audio, the apparatus comprising: a microphone array; a first beamformer coupled to the microphone array and arranged to generate a first beamformed audio output; a plurality of constrained beamformers (309, 311) coupled to the microphone array and each arranged to generate a constrained beamformed audio output; a first adapter for adapting beamform parameters of the first beamformer; a second adapter for adapting constrained beamform parameters for the plurality of constrained beamformers (309, 311); a difference processor for determining a difference measure for at least one of the plurality of constrained beamformers (309, 311), the difference measure being indicative of a difference between beams formed by the first beamformer and the at least one of the plurality of constrained beamformers (309, 311); wherein the second adapter is arranged to adapt the constrained beamform parameters with a constraint that the constrained beamform parameters are adapted only for constrained beamformers of the plurality of constrained beamformers (309, 311) for which the difference measure has been determined that meets a similarity criterion, and wherein the difference processor is arranged to determine the difference measure of the at least one of the plurality of constrained beamformers (309, 311) as a difference between the set of parameters for the first beamformer and the set of parameters for the at least one of the plurality of constrained beamformers (309,311). a microphone array; a first beamformer coupled to the microphone array and arranged to generate a first beamformed audio output; a plurality of constrained beamformers (309, 311) coupled to the microphone array and each arranged to generate a constrained beamformed audio output; a first adapter for adapting beamform parameters of the first beamformer; a second adapter for adapting constrained beamform parameters for the plurality of constrained beamformers (309, 311); a difference processor for determining a difference measure for at least one of the plurality of constrained beamformers (309, 311), the difference measure being indicative of a difference between beams formed by the first beamformer and the at least one of the plurality of constrained beamformers (309, 311); wherein the second adapter is arranged to adapt the constrained beamform parameters with a constraint that the constrained beamform parameters are adapted only for constrained beamformers of the plurality of constrained beamformers (309, 311) for which the difference measure has been determined that meets a similarity criterion, and wherein the difference processor is arranged to determine the difference measure of the at least one of the plurality of constrained beamformers (309, 311) as a difference between the set of parameters for the first beamformer and the set of parameters for the at least one of the plurality of constrained beamformers (309,311).
A housing section of a turbomachine compressor or turbomachine turbine stage, comprising a radially outer casing being especially closed and annular-shaped and having radially inwardly extending webs, the webs being inclined against the radius and surrounding at least one hollow space being inclined analogous to the webs and extending lengthwise of the turbomachine, characterized in that at least one of the hollow spaces defined by the webs communicates with a coolant inlet and a coolant outlet, which are each provided in a housing shell that is configured axially upstream, respectively downstream from the housing section of the turbomachine compressor or turbomachine turbine stage.
A flow counter (1, 31) configured to indicate an operating state of a flow detection driving gear by a pilot and a first pointer by transmitting rotation of the flow detection driving gear to the pilot, the first pointer, and a flow indication section comprising a plurality of digit wheels (4a1-4a8), by means of a gear train, and to indicate a total amount of flow by means of the flow indication section, wherein the gear train comprises: a main gear train section (2, 32) that comprises a plurality of gears (11, 12, 13, 15, 34, 35, 36, 37, 38, 40) arranged consecutively from the flow detection driving gear to a digit wheel (4a1) of the flow indication section and configured to transmit the rotation of the flow detection driving gear to the pilot and the flow indication section, the pilot being mounted to one of the plurality of gears (11, 12, 13, 15, 34, 35, 36, 37, 38, 40) of the main gear train section (2, 32); a branch gear section (3, 33) that is branched from the main gear train section (2, 32) to transmit the rotation of the flow detection driving gear to the first pointer; and a rotation sensor comprising a rotation detection member that is integrally rotatably mounted on a rotation shaft (18, 41) of the first pointer such that an amount of the rotation of the rotation shaft (18, 41) can be electrically detected by the rotation sensor, characterised in that the branch gear section (3, 33) comprises at least one arranged gear (17, 20, 42) branched from a predetermined gear (11, 35) of the main gear train section (2, 32), wherein the first pointer is mounted to the at least one arranged gear (17, 20, 42) such that the rotation shaft (18, 41) of the first pointer is driven to rotate by the branch gear section (3, 33) branched from the main gear train section (2, 32) and rotational resistance and running torque variations of the plurality of digit wheels (4a1 - 4a8) will not directly act on the rotation shaft (18, 41) of the first pointer, and in that detection results of the amount of rotation of the rotation shaft (18, 41) detected by the rotation sensor can be displayed by a display section. a main gear train section (2, 32) that comprises a plurality of gears (11, 12, 13, 15, 34, 35, 36, 37, 38, 40) arranged consecutively from the flow detection driving gear to a digit wheel (4a1) of the flow indication section and configured to transmit the rotation of the flow detection driving gear to the pilot and the flow indication section, the pilot being mounted to one of the plurality of gears (11, 12, 13, 15, 34, 35, 36, 37, 38, 40) of the main gear train section (2, 32); a branch gear section (3, 33) that is branched from the main gear train section (2, 32) to transmit the rotation of the flow detection driving gear to the first pointer; and a rotation sensor comprising a rotation detection member that is integrally rotatably mounted on a rotation shaft (18, 41) of the first pointer such that an amount of the rotation of the rotation shaft (18, 41) can be electrically detected by the rotation sensor,
Screen centrifuge with at least one inlet elbow, which is upstream of an inlet of the screen centrifuge, wherein the inlet elbow has a bend, in which material to be transported is diverted, characterised in that the bend has a curved screen, by way of which liquid is removed from the material and discharged and wherein moist material that is to be dried is fed, pre-dried, to the screen centrifuge by way of the inlet elbow.
A method for verifying vehicle information, comprising: ranking a plurality of pieces of information included in a target data packet based on a preset ranking order of pieces of information; selecting a target piece of information from the plurality of pieces of information as the target key information based on the ranked pieces of information; determining a target coding precision and a target coding mode for the target data packet to be transmitted, wherein the target coding precision is used for limiting the precision of data used in coding, and the target coding mode is used for stipulating a coding algorithm used in coding; coding the target data packet based on the target coding precision and the target coding mode, to generate target verification information of the target data packet, wherein the coding comprises: extracting, from the target key information of the target data packet, to-be-coded data with the target coding precision based on the target coding precision; and coding the to-be-coded data using the target coding mode, to generate the target verification information; and transmitting the target data packet and the target verification information, to instruct a receiving-end vehicle receiving the target data packet to verify received target data packet based on the target verification information. ranking a plurality of pieces of information included in a target data packet based on a preset ranking order of pieces of information; selecting a target piece of information from the plurality of pieces of information as the target key information based on the ranked pieces of information; determining a target coding precision and a target coding mode for the target data packet to be transmitted, wherein the target coding precision is used for limiting the precision of data used in coding, and the target coding mode is used for stipulating a coding algorithm used in coding; coding the target data packet based on the target coding precision and the target coding mode, to generate target verification information of the target data packet, wherein the coding comprises: extracting, from the target key information of the target data packet, to-be-coded data with the target coding precision based on the target coding precision; and coding the to-be-coded data using the target coding mode, to generate the target verification information; and extracting, from the target key information of the target data packet, to-be-coded data with the target coding precision based on the target coding precision; and coding the to-be-coded data using the target coding mode, to generate the target verification information; and transmitting the target data packet and the target verification information, to instruct a receiving-end vehicle receiving the target data packet to verify received target data packet based on the target verification information.
An electric motor with a motor housing which has a shaft section for receiving a motor shaft and a motor section for receiving motor electronics and motor windings, wherein the shaft section and the motor section are separated from each other in a sealed manner by a separating pot arranged in the motor housing, wherein, in the separating pot, a metal ball bearing pot is arranged, in which a ball bearing is fixed, and wherein the ball bearing pot lies indirectly against a motor housing section which is connected to the outer surroundings, via the separating pot, such that the motor housing functions as a cooling body and heat generated by the ball bearing during operation is dissipated onto the motor housing and the outer surroundings via the ball bearing pot and the separating pot, wherein the motor housing has a detachable housing cover which can be put on an axial side of the remainder of the motor housing and which forms the section of the motor housing which is indirectly connected to the ball bearing pot via the separating pot, characterized in that the housing cover has a cooling element protruding axially in the direction of the ball bearing pot, which locally increases a surface for connection to the ball bearing pot indirectly via the separating pot.
A cartridge for an aerosol-generating system, the cartridge comprising: a container comprising an outer surface and an inner surface, wherein the container outer surface at least partially defines an outer surface of the cartridge; a susceptor material comprising a susceptor material inner surface at least partially defining a cartridge cavity, the susceptor material inner surface defining a plurality of interstices; and an aerosol-forming substrate in the form of a gel at room temperature, wherein the gel is positioned within the plurality of interstices. a container comprising an outer surface and an inner surface, wherein the container outer surface at least partially defines an outer surface of the cartridge; a susceptor material comprising a susceptor material inner surface at least partially defining a cartridge cavity, the susceptor material inner surface defining a plurality of interstices; and an aerosol-forming substrate in the form of a gel at room temperature, wherein the gel is positioned within the plurality of interstices.
A microfluidic device for capturing biological cells, comprising: a substrate comprising a nanostructured surface region; a flow layer attached to said substrate to form a microfluidic channel such that at least a portion of said nanostructured surface region of said substrate is in contact with fluid that flows through said microfluidic channel while in operation; and a plurality of binding agents attached to said nanostructured surface region of said substrate, wherein said nanostructured surface region comprises a plurality of nanostructures each having a longitudinal dimension and a lateral dimension, said longitudinal dimension being at least ten times greater than said lateral dimension, and wherein biological cells are selectively captured by said binding agents and said plurality of nanostructures acting in cooperation, and wherein said flow layer comprises a textured surface that causes chaotic flow to increase the probability that said biological cells come into contact with said nanostructured surface region of said substrate to be captured. a substrate comprising a nanostructured surface region; a flow layer attached to said substrate to form a microfluidic channel such that at least a portion of said nanostructured surface region of said substrate is in contact with fluid that flows through said microfluidic channel while in operation; and a plurality of binding agents attached to said nanostructured surface region of said substrate, wherein said nanostructured surface region comprises a plurality of nanostructures each having a longitudinal dimension and a lateral dimension, said longitudinal dimension being at least ten times greater than said lateral dimension, and wherein biological cells are selectively captured by said binding agents and said plurality of nanostructures acting in cooperation, and wherein said flow layer comprises a textured surface that causes chaotic flow to increase the probability that said biological cells come into contact with said nanostructured surface region of said substrate to be captured.
A lens driving device comprising: a lens holder for holding a lens; a supporter portion (32, 35) for supporting the lens holder in a movable manner; a drive portion for moving the lens holder; and an elastic portion for supplying the lens holder with a force in a predetermined direction, wherein the supporter portion includes a shaft engaging with a bearing of the lens holder, the force in a predetermined direction includes a force in a direction perpendicular to the shaft and a force in a direction to rotate the lens holder about the shaft, wherein, the elastic portion is configured to pull the lens holder to press the lens holder to the shaft, and the drive portion is a magnetic circuit for driving the lens holder by an electromagnetic force, characterized in that the elastic portion is disposed diagonally to a direction parallel to the shaft when the drive portion is not driving the lens holder. a lens holder for holding a lens; a supporter portion (32, 35) for supporting the lens holder in a movable manner; a drive portion for moving the lens holder; and an elastic portion for supplying the lens holder with a force in a predetermined direction, wherein the supporter portion includes a shaft engaging with a bearing of the lens holder, the force in a predetermined direction includes a force in a direction perpendicular to the shaft and a force in a direction to rotate the lens holder about the shaft, wherein, the elastic portion is configured to pull the lens holder to press the lens holder to the shaft, and the drive portion is a magnetic circuit for driving the lens holder by an electromagnetic force, characterized in that the elastic portion is disposed diagonally to a direction parallel to the shaft when the drive portion is not driving the lens holder.
A wind power generation system, which includes an air supply system, composed structure of turbofan, several generator components, a control device and an air passage well, characterized in that said air supply system is configured to rise the wind which enters into the wind power generation system; an air supply funnel in the air supply system is set in the bottom of the composed structure of turbofan; the composed structure of turbofan is set in interior of the air passage well; wind which is risen drives the composed structure of turbofan to rotate, the operating gear ring connected to the composite structure of turbofan rotates with it; and then drives small gear in generator component which engages with the operating gear ring to rotate with high speed, the generator begins to generate electricity when required rotary speed of the electric generating sets is achieved; wherein said wind supply funnel is composed of a funnel and a wind supply duct; and wherein the big opening of the funnel is upward and the small opening is downward; the big opening of the funnel contacts with bottom of a concrete base table; the lower end of the funnel is connected to four wind supply ducts with bending angle of 90 degrees, and the wind supply duct is welded by steel plate tube with thickness of 10mm; and wherein a high pressure strong blower is mounted at a horizontal port of each wind supply duct.