mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly comprising: an inner component ; an outer component ; a tolerance ring , comprising an annular band and a plurality of projections projecting radially from the annular band , the tolerance ring being disposed between the inner component and the outer component ; and a low friction layer provided radially inside or radially outside the annular band so as to enable sliding movement in an axial direction between the inner component and the outer component , wherein at least one of the inner component or outer component is profiled to transmit a radial load between the inner component and the outer component to prevent collapse of the projections 162). an inner component ; an outer component ; a tolerance ring , comprising an annular band and a plurality of projections projecting radially from the annular band , the tolerance ring being disposed between the inner component and the outer component ; and a low friction layer provided radially inside or radially outside the annular band so as to enable sliding movement in an axial direction between the inner component and the outer component , wherein at least one of the inner component or outer component is profiled to transmit a radial load between the inner component and the outer component to prevent collapse of the projections 162).
A detachable disposable absorbent article, comprising: a. a wearer-facing continuous first liner that is liquid permeable; b. a garment-facing second liner that is directly bonded to the first liner by one or more seams , at least one of the seams is shifted inward from the edge of the article to form a sanitary gap between the second liner and a continuous extension of the first liner outward of the seam , the continuous extension of the first liner at the edge of the article forms a sanitary grip adapted for tearing the first liner ; and c. a liquid permeable absorbent core enclosed between the first liner and the second liner . a. a wearer-facing continuous first liner that is liquid permeable; b. a garment-facing second liner that is directly bonded to the first liner by one or more seams , at least one of the seams is shifted inward from the edge of the article to form a sanitary gap between the second liner and a continuous extension of the first liner outward of the seam , the continuous extension of the first liner at the edge of the article forms a sanitary grip adapted for tearing the first liner ; and c. a liquid permeable absorbent core enclosed between the first liner and the second liner .
A method, comprising: removing one or more oxide layers from a qubit formed on a substrate ; and depositing a self assembled monolayer on the qubit , removing one or more second oxide layers from the substrate ; and depositing the self assembled monolayer on the substrate . removing one or more oxide layers from a qubit formed on a substrate ; and depositing a self assembled monolayer on the qubit , removing one or more second oxide layers from the substrate ; and depositing the self assembled monolayer on the substrate .
Rotary feedthrough having a stator and a rotor , which each have at least one fluid channel (3.1, 3.2, 4.1, 4.2); having a fluid transfer interface between the stator and the rotor , via which a fluid flows out of the fluid channel (3.1, 3.2) in the stator into the fluid channel (4.1, 4.2) in the rotor or vice versa, wherein the fluid transfer interface is sealed off from the environment by means of a face seal comprising an abrasive sliding ring , and the sliding ring , elastically pretensioned in an axial direction (X), rests against at least one counter-ring and forms a sealing surface with the latter; characterized in that an axial displacement detection device is provided which is set up to detect, when the sliding ring is worn, an associated axial displacement of the stator and/or of the rotor , wherein the axial displacement detection device comprises a rotary encoder on the rotor and a sensor that detects a position of the rotary encoder and is radially opposite the rotary encoder , and the rotary encoder comprises at least one discrete marking or a plurality of discrete markings spaced apart from one another in the circumferential direction and arranged successively on the rotor , and the at least one discrete marking varies in its extension in the circumferential direction along the axial direction (X) and/or different numbers of individual discrete markings are provided in succession in the circumferential direction in different axial sections of the rotor . having a stator and a rotor , which each have at least one fluid channel (3.1, 3.2, 4.1, 4.2); having a fluid transfer interface between the stator and the rotor , via which a fluid flows out of the fluid channel (3.1, 3.2) in the stator into the fluid channel (4.1, 4.2) in the rotor or vice versa, wherein the fluid transfer interface is sealed off from the environment by means of a face seal comprising an abrasive sliding ring , and the sliding ring , elastically pretensioned in an axial direction (X), rests against at least one counter-ring and forms a sealing surface with the latter; characterized in that an axial displacement detection device is provided which is set up to detect, when the sliding ring is worn, an associated axial displacement of the stator and/or of the rotor , wherein the axial displacement detection device comprises a rotary encoder on the rotor and a sensor that detects a position of the rotary encoder and is radially opposite the rotary encoder , and the rotary encoder comprises at least one discrete marking or a plurality of discrete markings spaced apart from one another in the circumferential direction and arranged successively on the rotor , and the at least one discrete marking varies in its extension in the circumferential direction along the axial direction (X) and/or different numbers of individual discrete markings are provided in succession in the circumferential direction in different axial sections of the rotor .
Device for pressing a block, which has one or more windings, of a static electrical machine, preferably a coil of a transformer, comprising a pressure element for transmitting a pressing force acting on the block in an axial direction of the block, wherein the device has at least one hydraulic element for arrangement between the pressure element and the block in order to control a distribution of a pressing pressure acting on the block, characterized in that the hydraulic element is formed by at least one hydraulic hose and the hydraulic hose is arranged so as to run in the form of a spiral with respect to a longitudinal axis of the block.
A structural beam for use in a building, the structural beam comprising; a first end, a second end and a longitudinal axis extending therebetween; at least two spaced apart wall members each wall member extending parallel with the longitudinal axis, a base member spanning between the at least two spaced apart wall members , wherein the base member and each wall member cooperate to form a trough for receiving cement, wherein each wall member includes: a first ledge extending outwardly away from the trough and; a second ledge extending outwardly away from the trough ; wherein the first ledge and second ledge cooperate to form a channel dimensioned for receiving a part of an insulation member, characterised in that the structural beam comprises a fibre reinforced polymer and includes a camber between the first end and the second end to compensate for the weight of the concrete when the beam is in situ. a first end, a second end and a longitudinal axis extending therebetween; at least two spaced apart wall members each wall member extending parallel with the longitudinal axis, a base member spanning between the at least two spaced apart wall members , wherein the base member and each wall member cooperate to form a trough for receiving cement, wherein each wall member includes: a first ledge extending outwardly away from the trough and; a second ledge extending outwardly away from the trough ; wherein the first ledge and second ledge cooperate to form a channel dimensioned for receiving a part of an insulation member, characterised in that the structural beam comprises a fibre reinforced polymer and includes a camber between the first end and the second end to compensate for the weight of the concrete when the beam is in situ. a first ledge extending outwardly away from the trough and; a second ledge extending outwardly away from the trough ; wherein the first ledge and second ledge cooperate to form a channel dimensioned for receiving a part of an insulation member, characterised in that the structural beam comprises a fibre reinforced polymer and includes a camber between the first end and the second end to compensate for the weight of the concrete when the beam is in situ.
Method of producing a fluoropolymer article comprising subjecting a composition to additive processing in an additive processing device containing at least one energy source, wherein the composition comprises fluoropolymer particles and a binder material capable of binding the fluoropolymer particles to form a layer in a part of the composition that has been exposed to the energy source of the additive processing device and the method comprises subjecting a part of the composition to exposure of the energy source to form a layer and wherein the fluoropolymer is a fluoroelastomer.
A method performed by a wireless device , the method comprising: receiving Narrowband Positioning Reference Signal, NPRS, configuration information for a cell, the NPRS configuration information including at least one of a first NPRS bitmap for Frequency Division Duplex, FDD, mode and a second NPRS bitmap for Time Division Duplex, TDD, mode, wherein the second NPRS bitmap for TDD is shorter in length than the first NPRS bitmap for FDD and is less than 10 bits in length, wherein the second NPRS bitmap further is, for Narrowband Internet of Things, NB-IoT, TDD Observed Time Difference of Arrival, OTDOA, measurement, and it indicates NPRS subframes on an anchor carrier and a non-anchor carrier, respectively, wherein the length of the second NPRS bitmap is interpreted differently by the anchor carrier and the non-anchor carrier based on the available number of Downlink, DL, subframes that in a Narrowband Internet of Things, NB-IoT, TDD configuration remain available/usable on the anchor carrier and the non-anchor carrier after discarding subframes that are always uplink for all the TDD configurations, special subframes, and subframes used for Narrowband Primary Synchronization Signal, NPSS, Narrowband Secondary Synchronization Signal, NSSS, System Information Block 1-Narrowband, SIB1-NB, and Narrowband Physical Broadcast channel, NPBCH; responsive to determining that the cell operates in TDD mode, determining a NPRS configuration in accordance with the second NPRS bitmap for TDD mode; and performing measurements using the NPRS configuration. receiving Narrowband Positioning Reference Signal, NPRS, configuration information for a cell, the NPRS configuration information including at least one of a first NPRS bitmap for Frequency Division Duplex, FDD, mode and a second NPRS bitmap for Time Division Duplex, TDD, mode, wherein the second NPRS bitmap for TDD is shorter in length than the first NPRS bitmap for FDD and is less than 10 bits in length, wherein the second NPRS bitmap further is, for Narrowband Internet of Things, NB-IoT, TDD Observed Time Difference of Arrival, OTDOA, measurement, and it indicates NPRS subframes on an anchor carrier and a non-anchor carrier, respectively, wherein the length of the second NPRS bitmap is interpreted differently by the anchor carrier and the non-anchor carrier based on the available number of Downlink, DL, subframes that in a Narrowband Internet of Things, NB-IoT, TDD configuration remain available/usable on the anchor carrier and the non-anchor carrier after discarding subframes that are always uplink for all the TDD configurations, special subframes, and subframes used for Narrowband Primary Synchronization Signal, NPSS, Narrowband Secondary Synchronization Signal, NSSS, System Information Block 1-Narrowband, SIB1-NB, and Narrowband Physical Broadcast channel, NPBCH; responsive to determining that the cell operates in TDD mode, determining a NPRS configuration in accordance with the second NPRS bitmap for TDD mode; and performing measurements using the NPRS configuration.
A wear-resistant steel plate, which consists of the following chemical components in weight percentages: C:0.22-0.35%, Si: 0.10-0.40%, Mn: 0.60-1.35%, P≤0.015%, S≤0.010%, Nb: 0.010-0.040%, Al: 0.010-0.080%, B: 0.0006-0.0014%, Ti: 0.005-0.050%, Ca: 0.0010-0.0080%, V≤0.080%, Cr≤50.60%, W≤1.00%, N≤50.0080%, O≤0.0060%, H≤0.0004%, wherein 0.025%≤Nb+Ti≤0.080%, 0.030%≤5Al+Ti≤0.12%, and the balance of Fe and unavoidable impurities.
An absorbent article for personal hygiene, the article having a wearer-facing side and a garment-facing side, the article comprising: - a liquid permeable topsheet on the wearer-facing side; - a liquid impermeable backsheet on the garment-facing side; - an absorbent layer comprising a superabsorbent polymer and disposed between the topsheet and the backsheet, the absorbent layer being disposed within a core wrap ; - a contrasting layer between the topsheet and the backsheet, wherein the contrasting layer is the top layer of the core wrap; and - a masking layer disposed between the topsheet and the contrasting layer, wherein the masking layer is a fluid handling layer comprising unbonded or loosely bonded fibers and is free of superabsorbent polymer and has a generally white appearance, wherein the masking layer comprises at least one see-through area , and the contrasting layer has a color that contrasts with the appearance of the masking layer, so that the contrasting layer is at least partially visible on the wearer-facing side of the article through the see-through area; wherein the see-through area is a channel area substantially free of masking layer material; and wherein the see-through area and rest of the masking layer have a ΔE* of at least 2.0 as measured on the wearer-facing side of the article, wherein the color difference is measured according to the CIE L*a*b* space method as indicated herein. - a liquid permeable topsheet on the wearer-facing side; - a liquid impermeable backsheet on the garment-facing side; - an absorbent layer comprising a superabsorbent polymer and disposed between the topsheet and the backsheet, the absorbent layer being disposed within a core wrap ; - a contrasting layer between the topsheet and the backsheet, wherein the contrasting layer is the top layer of the core wrap; and - a masking layer disposed between the topsheet and the contrasting layer, wherein the masking layer is a fluid handling layer comprising unbonded or loosely bonded fibers and is free of superabsorbent polymer and has a generally white appearance, wherein the masking layer comprises at least one see-through area , and the contrasting layer has a color that contrasts with the appearance of the masking layer, so that the contrasting layer is at least partially visible on the wearer-facing side of the article through the see-through area; wherein the see-through area is a channel area substantially free of masking layer material; and wherein the see-through area and rest of the masking layer have a ΔE* of at least 2.0 as measured on the wearer-facing side of the article, wherein the color difference is measured according to the CIE L*a*b* space method as indicated herein.
A system for adjusting fluid flow or pressure within a human body, said system comprising: a first pump implantable in a chamber or vessel of the human body; a plurality of struts connected to a housing of said first pump, wherein said struts secure the first pump in a desired location of said chamber or vessel, characterized in that the system further comprises: an inlet housing , an outlet housing and a flexible cannula extending between the inlet housing and the outlet housing that form part of the housing , a motor disposed within the inlet housing and connected to an impeller via a shaft , the inlet housing comprising an inlet flow director disposed therein that directs flow received radially from outside the inlet housing to the impeller and an intermediate flow director that directs flow from the impeller through the flexible cannula , and the outlet housing comprising an outlet flow director disposed therein that directs flow from the impeller radially outward from the outlet housing . an inlet housing , an outlet housing and a flexible cannula extending between the inlet housing and the outlet housing that form part of the housing , a motor disposed within the inlet housing and connected to an impeller via a shaft , the inlet housing comprising an inlet flow director disposed therein that directs flow received radially from outside the inlet housing to the impeller and an intermediate flow director that directs flow from the impeller through the flexible cannula , and the outlet housing comprising an outlet flow director disposed therein that directs flow from the impeller radially outward from the outlet housing .
A face frame assembly , comprising a face frame defining an air inlet , an air inlet grille disposed near the air inlet , and a guiding rail structure , wherein the guiding rail structure is detachably connected to an air inlet grille and/or a face frame , comprising: a connecting member , wherein at least one side of the connecting member is provided with a buckle ; a first guiding member , disposed on at least one side of the connecting member , wherein one end of the first guiding member is arc-shaped; and a second guiding member , disposed on at least one side of the connecting member and facing the arc end of the first guiding member , wherein the second guiding member and the first guiding member are cooperated with the connecting member to form a sliding rail , characterised in that the connection member and the buckle are configured for clamping the connection member to the air inlet grille and/or the face frame . a connecting member , wherein at least one side of the connecting member is provided with a buckle ; a first guiding member , disposed on at least one side of the connecting member , wherein one end of the first guiding member is arc-shaped; and a second guiding member , disposed on at least one side of the connecting member and facing the arc end of the first guiding member , wherein the second guiding member and the first guiding member are cooperated with the connecting member to form a sliding rail ,
Vehicle, in the drive train of which a clutch, in particular wet-running multi-disc clutch , is connected as a starter element between an internal combustion engine and a transmission , having a clutch control device , which in dependence on current driving operating parameters determines a desired clutch torque (M K, soll ) and controls a clutch actuator with a manipulated variable (Δp) which correlates with the desired clutch torque (M K, soll ), in order to set an actual clutch torque (M K, ist ) on the clutch , wherein the manipulated variable (Δp) is determined in dependence on the desired clutch torque (M K, soll ) and on a friction value (μ), which is deposited in the clutch control device , in an actuating unit of the clutch control device , and an engine control device , which determines an actual engine speed and an actual engine torque and speed-regulates the actual motor speed to a predefined idle speed (n Leerlauf ) in a vehicle standstill when the internal combustion engine is running, characterised in that an adaptation device is assigned to the clutch control device , which, if the vehicle is at a standstill with the internal combustion engine operated at idle, starts a friction value adaptation process, in which the clutch actuator is subjected to a test manipulated variable (Δp prüf ) in dependence on a test clutch torque (M K, prüf ) and a test friction value (μ prüf ), specifically by increasing the actual engine torque to a test engine torque (M M,prüf ) and by maintaining the actual engine speed regulated to the idle speed (n Leerlauf ) and that the adaptation device has an evaluation unit which from the test engine torque (M M, prüf ), test manipulated variable (Δp prüf ) and an idle engine torque (M Leerlauf ), which results in the standstill of the vehicle when the clutch is fully open, determines an adapted friction value (μ a ), which can be deposited in the clutch control device instead of the test friction value (μ prüf ).
Filter element comprising - a first filter medium and - a second filter medium , wherein the filter element has an unfiltered side , via which a fluid can be supplied, and a filtered side , via which the fluid can be discharged, wherein the first filter medium and the second filter medium are arranged directly between the unfiltered side and the filtered side , and wherein, in a fluid flow direction from the filtered side to the unfiltered side , the first filter medium has a smaller relative pressure loss than the second filter medium , wherein the first filter medium is a surface filter, and the second filter medium is a depth filter. - a first filter medium and - a second filter medium , wherein the filter element has an unfiltered side , via which a fluid can be supplied, and a filtered side , via which the fluid can be discharged, wherein the first filter medium and the second filter medium are arranged directly between the unfiltered side and the filtered side , and wherein, in a fluid flow direction from the filtered side to the unfiltered side , the first filter medium has a smaller relative pressure loss than the second filter medium , wherein the first filter medium is a surface filter, and the second filter medium is a depth filter.
Inverter device for a system, in particular for a photovoltaic system, the inverter device having: - a dipolar switching signal input for connecting an emergency switch of the system or for connecting a switching signal output of another inverter device of the system, - a dipolar switching signal output for connecting a switching signal input of another inverter device of the system, - a potential separator circuit , configured to couple the switching signal input and the switching signal output to one another in a potentially separated manner, - the inverter device , when an emergency switch is connected to the switching signal input thereof, being configurable by way of a configuration switch provided thereon as a master (M) of a switching chain of the system, said chain comprsising the inverter device configured as a master (M) itself as well as all inverter devices connected to the switching signal output thereof downstream via switching signal lines and configured as slaves (S) by way of configuration switches , the entire switching chain being switched automatically in a cascade via the switching signal lines when the emergency switch connected to the switching signal input of the inverter device configured as a master (M) is actuated. - a dipolar switching signal input for connecting an emergency switch of the system or for connecting a switching signal output of another inverter device of the system, - a dipolar switching signal output for connecting a switching signal input of another inverter device of the system, - a potential separator circuit , configured to couple the switching signal input and the switching signal output to one another in a potentially separated manner, - the inverter device , when an emergency switch is connected to the switching signal input thereof, being configurable by way of a configuration switch provided thereon as a master (M) of a switching chain of the system, said chain comprsising the inverter device configured as a master (M) itself as well as all inverter devices connected to the switching signal output thereof downstream via switching signal lines and configured as slaves (S) by way of configuration switches , the entire switching chain being switched automatically in a cascade via the switching signal lines when the emergency switch connected to the switching signal input of the inverter device configured as a master (M) is actuated.