mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode cutting device comprising: a cutting unit configured to cut an electrode sheet ; and a fixing unit configured to fix the electrode sheet , wherein the cutting unit comprises: a cutter configured to cut the electrode sheet by shearing; and a cutter lifting portion configured to move the cutter so as to be perpendicular to a surface of the electrode sheet , and wherein the fixing unit comprises: a gripper configured to press the electrode sheet so as to be fixed; and a driving portion configured to drive the gripper so as to be moved, wherein the driving portion is driven by a cylinder; characterized in that the fixing unit comprises a sensor configured to monitor the driving portion , wherein the sensor is a pneumatic gauge sensor, and wherein the sensor is configured to continuously or periodically monitor a pressure of the cylinder. a cutting unit configured to cut an electrode sheet ; and a fixing unit configured to fix the electrode sheet , wherein the cutting unit comprises: a cutter configured to cut the electrode sheet by shearing; and a cutter lifting portion configured to move the cutter so as to be perpendicular to a surface of the electrode sheet , and a cutter configured to cut the electrode sheet by shearing; and a cutter lifting portion configured to move the cutter so as to be perpendicular to a surface of the electrode sheet , and wherein the fixing unit comprises: a gripper configured to press the electrode sheet so as to be fixed; and a driving portion configured to drive the gripper so as to be moved, wherein the driving portion is driven by a cylinder; a gripper configured to press the electrode sheet so as to be fixed; and a driving portion configured to drive the gripper so as to be moved, wherein the driving portion is driven by a cylinder; characterized in that the fixing unit comprises a sensor configured to monitor the driving portion , wherein the sensor is a pneumatic gauge sensor, and wherein the sensor is configured to continuously or periodically monitor a pressure of the cylinder.
Circular surgical tissue fusion instrument with two gripping structures which are movable relative to each other and which are designed to bring together biological tissue sections (G 1 , G 2 ) that are to be connected to each other, with heat-generating means which are assigned to the gripping structures and, during tissue fusion, cause heat to be introduced in the area of a connection site of the biological tissue sections (G 1 , G 2 ), and with a support structure (7, 7a to 7g) which is assigned to the gripping structures and, during tissue fusion, is operatively connected to the tissue sections (G 1 , G 2 ), wherein the support structure (7, 7a to 7g) has at least one additional physical functional structure for aiding or promoting the tissue fusion, wherein the gripping structures are in the form of a base part and an anvil part , wherein a head area protruding from a grip area of the tissue fusion instrument via an elongate neck has the base part and the anvil part , the anvil part is mounted longitudinally displaceably in the base part by means of an anvil shaft coaxial to a central longitudinal axis (M) of the neck of the head area, wherein the anvil part can travel relative to the base part along the central longitudinal axis (M) between an open position and a closed position, and the base part and the anvil part have end faces which are directed toward each other, which form contact faces by which tissue sections (G 1 , G 2 ) to be connected to each other are grasped and brought together, wherein the two end faces of the base part and the anvil part are provided with electrode arrangements which, as heat-generating means, are acted upon electrically, wherein the support structure has apertures (D 2 ) which are designed as perforations, wherein the apertures (D 2 ) designed as perforations extend about a circumference of the support structure , are distributed uniformly in the shape of a circle about the circumference of the support structure and are arranged flush with the electrode arrangements , wherein the support structure is designed as an annular disk, has a receiving eye for mounting the support structure on the anvil shaft of the anvil part , characterized in that the support structure is additionally provided with an edge web , is formed integrally on the outer periphery of the annular disk-shaped support structure and protrudes axially, with respect to a radial plane of the support structure , on opposite sides relative to a disk surface of the support structure .
A computer implemented method for computer-aided analysis of medical images, where a pair of medical images is analysed, the pair including a first image (I1) which is a contrasted scan of a part in a human or animal body and a second image (I2) which is a native scan of the same part of the human or animal body without contrast agent, the method comprising the steps of: a) identifying one or more anatomic structures (AS1, AS2) within both the first image (I1) and the second image (I2), resulting in a positional information of the one or more anatomic structures (AS1, AS2) in the first and second images (I1, I2); b) identifying first centerlines (CL1) of vessels in the first image (I1), resulting in a positional information of the first centerlines (CL1) in the first image (I1); c) identifying second centerlines (CL2) of vessels in the second image (I2) corresponding to respective first centerlines (CL1) in the first image (I1), resulting in a positional information of the second centerlines (CL2) in the second image (I2), where the identification of the second centerlines (CL2) comprises the step of mapping the first centerlines (CL1) from the first image (I1) to the second image (I2) by estimating a spatial transform from the first image (I1) to the second image (I2) based on the identified one or more anatomic structures (AS1, AS2) in the first and second images (I1, I2); d) extracting candidate calcified plaques (CCP) in the second image (I2); e) identifying calcified plaques (CP) out of the candidate calcified plaques (CCP) by a machine learning classifier (RFC) processing a number of features of the candidate calcified plaques (CCP); wherein step d) and/or step e) uses the positional information of the second centerlines (CL2) in the second image (I2). a) identifying one or more anatomic structures (AS1, AS2) within both the first image (I1) and the second image (I2), resulting in a positional information of the one or more anatomic structures (AS1, AS2) in the first and second images (I1, I2); b) identifying first centerlines (CL1) of vessels in the first image (I1), resulting in a positional information of the first centerlines (CL1) in the first image (I1); c) identifying second centerlines (CL2) of vessels in the second image (I2) corresponding to respective first centerlines (CL1) in the first image (I1), resulting in a positional information of the second centerlines (CL2) in the second image (I2), where the identification of the second centerlines (CL2) comprises the step of mapping the first centerlines (CL1) from the first image (I1) to the second image (I2) by estimating a spatial transform from the first image (I1) to the second image (I2) based on the identified one or more anatomic structures (AS1, AS2) in the first and second images (I1, I2); d) extracting candidate calcified plaques (CCP) in the second image (I2); e) identifying calcified plaques (CP) out of the candidate calcified plaques (CCP) by a machine learning classifier (RFC) processing a number of features of the candidate calcified plaques (CCP);
A method for re-setting a Reflective Quality of Service, RQoS, Indicator, RQI, bit in a service data adaptation protocol, SDAP, header to a value of 1 for downlink packets of a flow destined for a user equipment device, UE, comprising: a user plane function, UPF, of a core network, determining that RQoS for a flow destined for the UE is enabled; determining that a QoS Flow Identifier, QFI, value for the flow requires updating or installing; and characterised by the UPF initiating a backoff timer prior to re-setting the RQI bit in the SDAP header to the value of 1 for downlink packets of the flow destined for the UE , wherein the backoff timer limits reset of an RQI bit for the flow destined for the UE . determining that RQoS for a flow destined for the UE is enabled; determining that a QoS Flow Identifier, QFI, value for the flow requires updating or installing; and characterised by the UPF initiating a backoff timer prior to re-setting the RQI bit in the SDAP header to the value of 1 for downlink packets of the flow destined for the UE , wherein the backoff timer limits reset of an RQI bit for the flow destined for the UE .
A 2-compartment system consisting of: - a first compartment comprising microcapsules comprising a water-insoluble and water-impermeable shell, and viable microorganisms contained in a non-aqueous composition in the core of said microcapsules; and - a second compartment comprising an aqueous composition having a pH of less than 7.0 and comprising one or more organic acids; wherein said second compartment is free of buffering agents. - a first compartment comprising microcapsules comprising a water-insoluble and water-impermeable shell, and viable microorganisms contained in a non-aqueous composition in the core of said microcapsules; and - a second compartment comprising an aqueous composition having a pH of less than 7.0 and comprising one or more organic acids;
A liquid nutritional composition comprising: carbohydrate, wherein the liquid nutritional composition comprises the carbohydrate at less than 2.1% by weight of the liquid nutritional composition; at least 7% by weight protein, wherein the protein consists of a whey protein hydrolysate and an intact whey protein; wherein the weight ratio of the whey protein hydrolysate to the intact whey protein is from 1:4 to 4:1; wherein the liquid nutritional composition has a pH of 6.4 to 7.5, a viscosity of 5 cps to 30 cps, and is shelf stable. carbohydrate, wherein the liquid nutritional composition comprises the carbohydrate at less than 2.1% by weight of the liquid nutritional composition; at least 7% by weight protein, wherein the protein consists of a whey protein hydrolysate and an intact whey protein; wherein the weight ratio of the whey protein hydrolysate to the intact whey protein is from 1:4 to 4:1; wherein the liquid nutritional composition has a pH of 6.4 to 7.5, a viscosity of 5 cps to 30 cps, and is shelf stable.
A dish washing appliance comprising: a dishwasher tub having an opening defined by opposing side walls and a rear wall opposite the opening; and a dishwasher rack having a rack height adjustment bracket , wherein the rack height adjustment bracket adjusts the dishwasher rack between at least two heights within the dishwasher tub; characterised in that : the dishwasher rack includes a retracting mechanism and a height adjustment device maintaining the retracting mechanism of the dishwasher rack engaged to the dishwasher tub in each one of the at least two heights within the dishwasher tub, and wherein the dishwasher rack includes one or more torsion springs , the spring force of the one or more torsion springs urging the dishwasher rack towards a stowed position of the dishwasher rack , and the retracting mechanism is configured to automatically return the dishwasher rack from a deployed position to the stowed position via the one or more torsion springs ; and the height adjustment device includes a sliding engagement between the retracting mechanism and the dishwasher tub. a dishwasher tub having an opening defined by opposing side walls and a rear wall opposite the opening; and a dishwasher rack having a rack height adjustment bracket , wherein the rack height adjustment bracket adjusts the dishwasher rack between at least two heights within the dishwasher tub; characterised in that : the dishwasher rack includes a retracting mechanism and a height adjustment device maintaining the retracting mechanism of the dishwasher rack engaged to the dishwasher tub in each one of the at least two heights within the dishwasher tub, and wherein the dishwasher rack includes one or more torsion springs , the spring force of the one or more torsion springs urging the dishwasher rack towards a stowed position of the dishwasher rack , and the retracting mechanism is configured to automatically return the dishwasher rack from a deployed position to the stowed position via the one or more torsion springs ; and the height adjustment device includes a sliding engagement between the retracting mechanism and the dishwasher tub. the dishwasher rack includes a retracting mechanism and a height adjustment device maintaining the retracting mechanism of the dishwasher rack engaged to the dishwasher tub in each one of the at least two heights within the dishwasher tub, and wherein the dishwasher rack includes one or more torsion springs , the spring force of the one or more torsion springs urging the dishwasher rack towards a stowed position of the dishwasher rack , and the retracting mechanism is configured to automatically return the dishwasher rack from a deployed position to the stowed position via the one or more torsion springs ; and the height adjustment device includes a sliding engagement between the retracting mechanism and the dishwasher tub.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, information configuring simultaneous transmission of hybrid automatic repeat request acknowledgement, HARQ-ACK, and channel state information, CSI; identifying whether a timing obtained by adding a processing time of the terminal after a last symbol of a physical downlink shared channel, PDSCH, reception is before a first symbol of a first physical uplink control channel, PUCCH, resource for a channel quality information, CQI, and a scheduling request, SR, based on the information; in case that the timing is before the first symbol of the first PUCCH resource, identifying an uplink resource for transmitting a first HARQ-ACK corresponding to the PDSCH reception, the CQI, and the SR; identifying whether the uplink resource overlaps with a second PUCCH resource for a second HARQ-ACK; and transmitting, to the base station, the first HARQ-ACK, the CQI, and the SR on the uplink resource, and the second HARQ-ACK on the second PUCCH resource, in case that the uplink resource does not overlap with the second PUCCH resource. receiving, from a base station, information configuring simultaneous transmission of hybrid automatic repeat request acknowledgement, HARQ-ACK, and channel state information, CSI; identifying whether a timing obtained by adding a processing time of the terminal after a last symbol of a physical downlink shared channel, PDSCH, reception is before a first symbol of a first physical uplink control channel, PUCCH, resource for a channel quality information, CQI, and a scheduling request, SR, based on the information; in case that the timing is before the first symbol of the first PUCCH resource, identifying an uplink resource for transmitting a first HARQ-ACK corresponding to the PDSCH reception, the CQI, and the SR; identifying whether the uplink resource overlaps with a second PUCCH resource for a second HARQ-ACK; and transmitting, to the base station, the first HARQ-ACK, the CQI, and the SR on the uplink resource, and the second HARQ-ACK on the second PUCCH resource, in case that the uplink resource does not overlap with the second PUCCH resource.
A rocket throat insert comprising an annular body having a radially inner annular wall portion and a radially outer annular portion , the radially inner annular wall portion having a contoured radially inner surface defining a nozzle throat ; and the radially outer annular portion including an annular buttressing structure supporting the radially inner annular wall portion and defining one or more insulation gaps arranged annularly around the radially inner wall portion for restricting the radial flow of heat through the annular body; the rocket throat insert being further characterized in that the radially outer portion further includes a radially outer wall portion , and the annular buttressing structure is disposed radially between the radially outer and inner wall portions; the annular buttressing structure includes an intermediate wall portion , a radially inner annular array of first supports extending radially between the radially inner and intermediate wall portions, and a radially outer annular array of second supports extending radially between the radially outer and intermediate wall portions; the supports are in the form of spokes radiating from a central axis of the annular body; and the spokes each have a length in the radial direction greater than a width. the radially inner annular wall portion having a contoured radially inner surface defining a nozzle throat ; and the radially outer annular portion including an annular buttressing structure supporting the radially inner annular wall portion and defining one or more insulation gaps arranged annularly around the radially inner wall portion for restricting the radial flow of heat through the annular body; the radially outer portion further includes a radially outer wall portion , and the annular buttressing structure is disposed radially between the radially outer and inner wall portions; the annular buttressing structure includes an intermediate wall portion , a radially inner annular array of first supports extending radially between the radially inner and intermediate wall portions, and a radially outer annular array of second supports extending radially between the radially outer and intermediate wall portions; the supports are in the form of spokes radiating from a central axis of the annular body; and the spokes each have a length in the radial direction greater than a width. the annular buttressing structure includes an intermediate wall portion , a radially inner annular array of first supports extending radially between the radially inner and intermediate wall portions, and a radially outer annular array of second supports extending radially between the radially outer and intermediate wall portions; the supports are in the form of spokes radiating from a central axis of the annular body; and the spokes each have a length in the radial direction greater than a width.
A regulator , comprising: a body having an inlet , an outlet , and a passage formed between the inlet and the outlet ; a first cage positioned in the body adjacent the passage and between the inlet and the outlet ; a diaphragm positioned within the body ; and a second cage operatively connected to the diaphragm such that the second cage moves with the diaphragm ; characterized in that the second cage is positionable on a first side of the diaphragm , opposite the first cage , and on a second side of the diaphragm such that the second cage is positioned within the first cage and is movable relative to the first cage . a body having an inlet , an outlet , and a passage formed between the inlet and the outlet ; a first cage positioned in the body adjacent the passage and between the inlet and the outlet ; a diaphragm positioned within the body ; and a second cage operatively connected to the diaphragm such that the second cage moves with the diaphragm ; characterized in that the second cage is positionable on a first side of the diaphragm , opposite the first cage , and on a second side of the diaphragm such that the second cage is positioned within the first cage and is movable relative to the first cage .
Test bench for a vehicle hybrid powertrain motor vehicle comprising a first and a second driving machine intended for the simulation of a driving cycle, such that it only comprises the first driving machine of the said first and second driving machines and control means comprising a determination means a first torque setpoint (CS1) of the first driving machine equipping the test bench, said first setpoint (CS1) being calculated as a function of a second virtual torque setpoint (CS2) of the second driving machine and a third virtual torque setpoint (CS3) of the first driving machine , characterized in that said third setpoint (CS3) being calculated for a model of the vehicle comprising a powertrain lacking the second driving machine motor for the execution of said driving cycle, the first motor machine controlled by the first instruction (CS1) being a heat engine and in that it further comprises a means of analysis of the exhaust gases exhaust from said heat engine .
Laundry care appliance with a rotatably mounted laundry drum for receiving laundry items , a drive motor for rotating the laundry drum , a recirculating pump apparatus for recirculating washing liquid out from the laundry drum and back into the laundry drum , a heating element for heating the washing liquid and a control device for actuating the drive motor , the recirculating pump apparatus and the heating element in accordance with a laundry care program running on the control device during operation, characterised in that the control device is embodied, as part of the laundry care program which provides phases in which the laundry drum is rotated at a rotational speed in the range of settling rotational speeds and the recirculating pump apparatus is active, to activate the recirculating pump apparatus , during the ramping up of the rotational speed of the laundry drum , when the rotational speed of the laundry drum exceeds a first rotational speed threshold value, so that the amount of washing liquid is always sufficient for a pump of the recirculating pump apparatus to be able to be operated without interruption, i.e. in particular not drawing air.
An apparatus for regulating winding tension as function of bobbin diameter in a slit film tape or yarn winder system carrying at least one winder, said apparatus comprising a dancing arm , the instantaneous position of said dancing arm and resistance R to movement of said dancing arm being variable during the yarn winding operation, wherein said apparatus comprises a tension setting means for changing said resistance 'R' of the dancing arm as a function of the bobbin diameter 'D' during the winding process, and wherein said tension setting means is a pressure multiplexer capable of changing said resistance R in discrete steps, characterized in that in the case of the discrete-stepped pressure change, said pressure multiplexer is provided with at least two separate pressure lines (11A and 11B) and a pressure line selection switch, wherein only one pressure line (11A or 11B) is activated at any time using said switch and the pressure is transmitted to said dancing arm for generating resistance R.
An air conditioner comprising: a cabinet provided with an opening ; and a cover to open and close the opening , wherein the cover comprises: a cover body to cover the opening and including a first cover body and a second cover body that are spaced apart from each other to form a double layer walled structure; and a plurality of spacing ribs provided between the first cover body and the second cover body . a cabinet provided with an opening ; and a cover to open and close the opening , wherein the cover comprises: a cover body to cover the opening and including a first cover body and a second cover body that are spaced apart from each other to form a double layer walled structure; and a plurality of spacing ribs provided between the first cover body and the second cover body .