mhurhangee/patent-ind-claim-en huggingface dataset:
A system for filtering an input image dataset, wherein the input dataset comprises a plurality of sequences of input signal values corresponding to sampling points i, wherein the sampling points i correspond to time points or wherein the sampling points i represent a sequence of measurements, wherein each sequence I( x ,1), I( x ,2),...,I( x ,n), for a positive integer n, corresponds to a different attribute x of a set of attributes, wherein an input signal value I( x, i) is associated with an attribute x and a sampling point i, wherein the attribute is a location or a frequency and the sampling point i represents an index in the sequence I( x ,1), I( x ,2),...,I( x ,n), the system comprising at least one processor configured to control computing an output signal value I*( x ,i) corresponding to a sampling point i and an attribute x , wherein the computing comprises for a particular sampling point i and for each of a plurality of M different attributes y k , wherein k=1,... ,M, of the set of attributes, associating a weight w( x,y k ,i) to an input signal value I( y k ,i) based on a similarity S i ( x,y k ) between the signal values I( x ,j) and I( y k ,j) for a plurality of the sampling points j excluding the sampling point i, and computing a weighted sum based on the input signal values I( y k ,i) and weights w( x,y k ,i), wherein k=1,... ,M.
Method for determining a web tension (Z) of a product web , wherein the product web is moved by at least one motor over a deflection roller at a web speed (v), wherein the motor drives the deflection roller with a speed of rotation (w) and a torque (D), wherein a frequency converter predefines the torque (D) and the speed of rotation (w) of the motor , wherein the web tension (Z) at at least one point of the product web is determined by using a load (Y) on the motor that is provided by the frequency converter , a frictional load (Y_f), an acceleration load (Y_a), the diameter (d) of the deflection roller and the width (b) of the product web , wherein the web tension (Z) at the at least one point is calculated by Z = Y − Y _ f − Y _ a d b .
Pant-type pre-fastened and refastenable absorbent sanitary article, comprising: - a central body having two opposite side edges and including a topsheet having an inner surface , a backsheet , and an absorbent core sandwiched between the topsheet and the backsheet , wherein the topsheet and the backsheet are welded together along a perimeter of the central body , and wherein the central body is folded along a transverse folding line (A) orthogonal to said side edges , and - at least two side panels extending from respective side edges of said central body , each of said side panels having at least one folded portion that extends inwardly from the respective side edge and a fastening element of an openable and refastenable fastening device , - a pair of barrier leg cuffs fixed on said inner surface of said topsheet , - a pair of strips of sheet material fixed on an upper surface of respective barrier leg cuffs , wherein said strips of sheet material have respective outer side portions detached from the upper surface of the respective cuff and forming laterally outwards-opening pockets that receive and retain the respective inner edges of the respective folded portions of the side panels . - a central body having two opposite side edges and including a topsheet having an inner surface , a backsheet , and an absorbent core sandwiched between the topsheet and the backsheet , wherein the topsheet and the backsheet are welded together along a perimeter of the central body , and wherein the central body is folded along a transverse folding line (A) orthogonal to said side edges , and - at least two side panels extending from respective side edges of said central body , each of said side panels having at least one folded portion that extends inwardly from the respective side edge and a fastening element of an openable and refastenable fastening device , - a pair of barrier leg cuffs fixed on said inner surface of said topsheet , - a pair of strips of sheet material fixed on an upper surface of respective barrier leg cuffs , wherein said strips of sheet material have respective outer side portions detached from the upper surface of the respective cuff and forming laterally outwards-opening pockets that receive and retain the respective inner edges of the respective folded portions of the side panels .
A method for driving a capacitive sensor of an input device , the method comprising: determining a first settling response associated with a first transmitter electrode (210-1); determining a second settling response associated with the sensor; applying a first boost voltage (506, V high 1) to the first transmitter electrode for a first duration based on the first settling response associated with the first transmitter electrode, wherein the first boost voltage is greater than an ending voltage of the first transmitter electrode; and applying the second voltage (508, V high) to the first transmitter electrode for a second duration based on the second settling response associated with the sensor, wherein the first settling response and the second settling response are different; wherein the settling response associated with the first transmitter electrode defines, at least in part, a settling time to reach and stay within a pre-determined range of the ending voltage upon application of a voltage to the first transmitter electrode. determining a first settling response associated with a first transmitter electrode (210-1); determining a second settling response associated with the sensor; applying a first boost voltage (506, V high 1) to the first transmitter electrode for a first duration based on the first settling response associated with the first transmitter electrode, wherein the first boost voltage is greater than an ending voltage of the first transmitter electrode; and applying the second voltage (508, V high) to the first transmitter electrode for a second duration based on the second settling response associated with the sensor, wherein the first settling response and the second settling response are different; wherein the settling response associated with the first transmitter electrode defines, at least in part, a settling time to reach and stay within a pre-determined range of the ending voltage upon application of a voltage to the first transmitter electrode.
Implantable access device for accessing the vascular system of a human or animal body, particularly subcutaneously implantable access port, comprising: a port body , a needle entrance with at least one inlet opening for receiving a needle and an outlet opening , an at least partially flexible catheter for accessing the vascular system of the human or animal body connected to the outlet opening of the needle entrance , wherein the needle entrance is connected to the port body and movable relative to the port body between a first, unactuated operating condition and a second, actuated operating condition, and further comprising clamping means for clamping the at least partially flexible catheter in the first, unactuated operating condition and unclamping the at least partially flexible catheter in the second, actuated operating condition, so that in the first, unactuated operating condition the clamping means prevent a fluid flow through the at least partially flexible catheter and in the second, actuated operating condition allow a fluid flow through the at least partially flexible catheter characterized in that the movement of the needle entrance relative to the port body from the first, unactuated operating condition to the second, actuated operating condition comprises first a translational movement in the direction of the insertion of the needle into the needle entrance and afterwards a pivoting movement with respect to the translational movement. a port body , a needle entrance with at least one inlet opening for receiving a needle and an outlet opening , an at least partially flexible catheter for accessing the vascular system of the human or animal body connected to the outlet opening of the needle entrance , wherein the needle entrance is connected to the port body and movable relative to the port body between a first, unactuated operating condition and a second, actuated operating condition, and further comprising clamping means for clamping the at least partially flexible catheter in the first, unactuated operating condition and unclamping the at least partially flexible catheter in the second, actuated operating condition, so that in the first, unactuated operating condition the clamping means prevent a fluid flow through the at least partially flexible catheter and in the second, actuated operating condition allow a fluid flow through the at least partially flexible catheter characterized in that the movement of the needle entrance relative to the port body from the first, unactuated operating condition to the second, actuated operating condition comprises first a translational movement in the direction of the insertion of the needle into the needle entrance and afterwards a pivoting movement with respect to the translational movement.
A method for configuring a lock management system in a distributed system, comprising: setting a corresponding level of a lock management system for each service execution node according to the number of service execution nodes comprised in the distributed system, the number of system instances on all service execution nodes, the number of handling processes on all the service execution nodes, and a delay of access of each service execution node to a central control node of the distributed system; allocating at least one lock manager to each service execution node separately according to the level, which is corresponding to each service execution node, of the lock management system; and configuring a lock level context for each lock manager, wherein the lock level context is used to determine an adjacent lock manager of each lock manager. setting a corresponding level of a lock management system for each service execution node according to the number of service execution nodes comprised in the distributed system, the number of system instances on all service execution nodes, the number of handling processes on all the service execution nodes, and a delay of access of each service execution node to a central control node of the distributed system; allocating at least one lock manager to each service execution node separately according to the level, which is corresponding to each service execution node, of the lock management system; and configuring a lock level context for each lock manager, wherein the lock level context is used to determine an adjacent lock manager of each lock manager.
A hydrogenated block copolymer pellet comprising : 100 parts by mass of a pellet molded product of hydrogenated block copolymer A and 0.01 to 1.5 parts by mass of an antiblocking agent of polyethylene-based powder B, wherein the hydrogenated block copolymer A has a polymeric block a mainly comprising at least one vinyl aromatic monomer unit and polymeric block b mainly comprising at least one conjugated diene monomer unit, in which a total content of the 1,2-bond content and the 3,4-bond content in the hydrogenated block copolymer A before hydrogenation is less than 38 mol %, based on a total binding amount of the conjugated diene monomer unit, a content of the polymeric block a in the hydrogenated block copolymer A is 5% to 30% by mass, the polyethylene-based powder B has a number average molecular weight of 15,000 or less, and the antiblocking agent of polyethylene-based powder B have an average particle diameter of 1 to 15 μm. 100 parts by mass of a pellet molded product of hydrogenated block copolymer A and 0.01 to 1.5 parts by mass of an antiblocking agent of polyethylene-based powder B, wherein the hydrogenated block copolymer A has a polymeric block a mainly comprising at least one vinyl aromatic monomer unit and polymeric block b mainly comprising at least one conjugated diene monomer unit, in which a total content of the 1,2-bond content and the 3,4-bond content in the hydrogenated block copolymer A before hydrogenation is less than 38 mol %, based on a total binding amount of the conjugated diene monomer unit, a content of the polymeric block a in the hydrogenated block copolymer A is 5% to 30% by mass, the polyethylene-based powder B has a number average molecular weight of 15,000 or less, and the antiblocking agent of polyethylene-based powder B have an average particle diameter of 1 to 15 μm.
A method comprising: performing a first damage prediction with a computational model using at least data from a multitude of damage sensors mounted to a structure , the multitude of damage sensors including a multitude of local damage sensors applied to the structure and a multitude of global damage sensors applied to the structure , the damage sensors being configured to sense a deviation in a structure from its original configuration and/or produce a signal that can be used to sense the deviation; performing a second damage prediction with the computational model using at least data from a multitude of load sensors associated with the structure , the multitude of load sensors including at least one of physical load sensors mounted to the structure and configured to sense loads in a structure or virtual load sensors corresponding to a computational model associated with the structure and configured to estimate an applied load based on state parameters; selectively performing a damage monitoring action in response to the first damage prediction and the second damage prediction to determine a structural health; identifying areas on the structure where damage is likely to occur under operational conditions; mounting a first quantity of the multitude of local damage sensors to the areas where damage is likely to occur; and mounting a second quantity of the multitude of global damage sensors to a plurality of locations on a large area of the structure , the second quantity being greater than the first quantity. performing a first damage prediction with a computational model using at least data from a multitude of damage sensors mounted to a structure , the multitude of damage sensors including a multitude of local damage sensors applied to the structure and a multitude of global damage sensors applied to the structure , the damage sensors being configured to sense a deviation in a structure from its original configuration and/or produce a signal that can be used to sense the deviation; performing a second damage prediction with the computational model using at least data from a multitude of load sensors associated with the structure , the multitude of load sensors including at least one of physical load sensors mounted to the structure and configured to sense loads in a structure or virtual load sensors corresponding to a computational model associated with the structure and configured to estimate an applied load based on state parameters; selectively performing a damage monitoring action in response to the first damage prediction and the second damage prediction to determine a structural health; identifying areas on the structure where damage is likely to occur under operational conditions; mounting a first quantity of the multitude of local damage sensors to the areas where damage is likely to occur; and mounting a second quantity of the multitude of global damage sensors to a plurality of locations on a large area of the structure , the second quantity being greater than the first quantity.
A bone anchoring device comprising: a receiving part for coupling a rod to a bone anchoring element , the receiving part comprising a first end , a second end , a central axis (C) extending between the first end and the second end , a recess for receiving a rod , wherein by the recess two open legs are formed and wherein the legs are configured to cooperate with a fixation element , and a head receiving portion at the second end for pivotably holding a head of a bone anchoring element , the head receiving portion being at least partially flexible and having an opening at the second end for inserting the head; and a locking ring mounted at least partially around the head receiving portion , wherein a rotational movement of the locking ring around the central axis (C) provides a force which causes the head receiving portion to be compressed, wherein the locking ring comprises a first end that faces towards the first end of the receiving part when the locking ring is mounted, an opposite second end and a third engagement structure that is configured to be engaged by a tool for rotating the locking ring and wherein the third engagement structure comprises at least one notch that is open towards the first end of the locking ring and that extends towards the second end in an inclined manner relative to the central axis (C). a receiving part for coupling a rod to a bone anchoring element , the receiving part comprising a first end , a second end , a central axis (C) extending between the first end and the second end , a recess for receiving a rod , wherein by the recess two open legs are formed and wherein the legs are configured to cooperate with a fixation element , and a head receiving portion at the second end for pivotably holding a head of a bone anchoring element , the head receiving portion being at least partially flexible and having an opening at the second end for inserting the head; and a locking ring mounted at least partially around the head receiving portion , wherein a rotational movement of the locking ring around the central axis (C) provides a force which causes the head receiving portion to be compressed, wherein the locking ring comprises a first end that faces towards the first end of the receiving part when the locking ring is mounted, an opposite second end and a third engagement structure that is configured to be engaged by a tool for rotating the locking ring and wherein the third engagement structure comprises at least one notch that is open towards the first end of the locking ring and that extends towards the second end in an inclined manner relative to the central axis (C).
Method for the monitoring of the carbon monoxide emission of a fuel cell heating system having a reformer , a fuel cell stack and an afterburner , a reformer temperature sensor for detecting the reformer temperature, an afterburner temperature sensor for detecting the afterburner temperature, a voltage sensor for detecting the stack voltage and having a mass flow sensor for detecting the cathode air mass flow rate, characterised by the cyclic steps of a) determining whether the afterburner temperature is within a range of between 750°C and 1000°C; b) determining whether the reformer temperature is greater than 550°C, preferably greater than 640°C; c) determining whether the cathode mass air flow rate is greater than 7.5 times the nominal mass gas flow rate in nominal operation; d) determining whether the stack voltage is greater than 0.65 V per cell of the stack; e) outputting of an error signal if the result of the determinations of one of steps a) to d) was negative, and characterised in that the mass flow sensor is a pressure switch which switches at a cathode mass air flow which is 7.5 times the nominal mass gas flow. a) determining whether the afterburner temperature is within a range of between 750°C and 1000°C; b) determining whether the reformer temperature is greater than 550°C, preferably greater than 640°C; c) determining whether the cathode mass air flow rate is greater than 7.5 times the nominal mass gas flow rate in nominal operation; d) determining whether the stack voltage is greater than 0.65 V per cell of the stack; e) outputting of an error signal if the result of the determinations of one of steps a) to d) was negative,
A heat pipe for an electronic device, comprising: a body having a generally planar, metallic structure, the body comprising a first module and a second module joined together to define an internal volume, wherein each of the first module and the second module has a foldable portion therein; a polymeric layer disposed over the foldable portion of each of the first module and the second module , of the body ; the heat pipe being characterized in that it further comprises one or more grooves formed in the foldable portion of each of the first module and the second module of the body , wherein the one or more grooves extends along a lateral direction of the body ; wherein the polymeric layer comprises a metallic layer arranged therewith; and wherein the metallic layer comprises one or more indentations complementary to the one or more grooves formed in the foldable portion of each of the first module and the second module , of the body . a body having a generally planar, metallic structure, the body comprising a first module and a second module joined together to define an internal volume, wherein each of the first module and the second module has a foldable portion therein; a polymeric layer disposed over the foldable portion of each of the first module and the second module , of the body ; the heat pipe being characterized in that it further comprises one or more grooves formed in the foldable portion of each of the first module and the second module of the body , wherein the one or more grooves extends along a lateral direction of the body ; wherein the polymeric layer comprises a metallic layer arranged therewith; and wherein the metallic layer comprises one or more indentations complementary to the one or more grooves formed in the foldable portion of each of the first module and the second module , of the body .
A downlink control information receiving method, comprising: receiving downlink control information, DCI, wherein the DCI comprises G-bit resource allocation information, and the G-bit resource allocation information is used to indicate a resource allocated to a terminal device in a bandwidth part; and performing data transmission on the allocated resource, wherein G=max(LA,LB), LA is a length of resource allocation information determined when a resource is allocated to the terminal device in the bandwidth part based on a resource allocation type 0, LB is a length of resource allocation information determined when a resource is allocated to the terminal device in the bandwidth part based on a resource allocation type 1, and LA and LB are integers greater than or equal to 1. receiving downlink control information, DCI, wherein the DCI comprises G-bit resource allocation information, and the G-bit resource allocation information is used to indicate a resource allocated to a terminal device in a bandwidth part; and performing data transmission on the allocated resource, wherein G=max(LA,LB), LA is a length of resource allocation information determined when a resource is allocated to the terminal device in the bandwidth part based on a resource allocation type 0, LB is a length of resource allocation information determined when a resource is allocated to the terminal device in the bandwidth part based on a resource allocation type 1, and LA and LB are integers greater than or equal to 1.