mhurhangee/patent-ind-claim-en huggingface dataset:
A battery management system for optimizing an internal resistance of a battery, the battery management system comprising: a current measurement unit configured to measure a discharging current of the battery; a memory configured to store a plurality of voltage-current characteristic profiles; and a control unit operatively connected to the current measurement unit and the memory and configured to determine a reference profile from the plurality of voltage-current characteristic profiles based on a state of charge and a temperature of the battery, the reference profile including a start point, an end point, and a plurality of intermediate points positioned between the start point and the end point, wherein the control unit is further configured to: determine an internal resistance of the battery based on the start point and the end point; set one of the plurality of intermediate points as a reference point; determine a reference resistance smaller than the internal resistance based on the reference point and the end point by using Equation 1: R ref = V ref − V end I ref − I end (I ref is the current of the reference point, V ref is the voltage of the reference point, I end is the current of the end point, V end is the voltage of the end point, and R ref is the reference resistance); and determine an optimum resistance larger than the internal resistance based on the discharging current, the internal resistance, the reference resistance, and a predetermined discharge upper limit current by using Equation 2: R opt = V ocv − V ocv − R int − R ref I end − R ref I dis I dis = R int − R ref I end I dis − R ref (R int is the internal resistance, I dis is the discharging current, and R opt is the optimum resistance). a current measurement unit configured to measure a discharging current of the battery; a memory configured to store a plurality of voltage-current characteristic profiles; and a control unit operatively connected to the current measurement unit and the memory and configured to determine a reference profile from the plurality of voltage-current characteristic profiles based on a state of charge and a temperature of the battery, the reference profile including a start point, an end point, and a plurality of intermediate points positioned between the start point and the end point, determine an internal resistance of the battery based on the start point and the end point; set one of the plurality of intermediate points as a reference point; determine a reference resistance smaller than the internal resistance based on the reference point and the end point by using Equation 1: R ref = V ref − V end I ref − I end
A pad for orthopedic aids or compression garments, comprising a pad base body of a first material and at least one pad pressure element of a second material, wherein the first material of the pad base body is softer than the second material of the pad pressure element , wherein the pad pressure element has at least two rows of at least three elevations each, wherein the at least two rows of elevations do not extend in parallel at least in one portion, and wherein the elevations protrude from a base element of the pad pressure element characterized in that, the pad pressure element is embedded in the pad base body at least in part and that two adjacent rows of the at least two rows of at least three elevations each in the non-parallel portion extend at an angle of at least 3° and at most 25° to one another.
An miRNA inhibiting complex comprising an RNA, the miRNA inhibiting complex comprising two or more double-stranded structures and an miRNA binding sequence, wherein strands of the miRNA binding sequence are each bound to one of two strands on one end of a double-stranded structure of the two or more of the double-stranded structures, and the other ends of the strands are each bound to one of two strands of a second double-stranded structure of the two or more of the double-stranded structures, so that the strands are sandwiched between the two or more of the double-stranded structures, wherein the miRNA inhibiting complex comprises at least one bridged nucleic acid (BNA) in the stem region of the miRNA inhibiting complex, and wherein the double-stranded structure is at least 10 bases long.
A binding molecule that binds to human complement factor C2 for use in a method of treating myasthenia gravis, haemolytic anaemia, glomerulonephritis, adult respiratory distress syndrome, xenotransplantation, multiple sclerosis, burn injuries, or toxicity induced by the in vivo administration of cytokines or mAbs, wherein the binding molecule comprises an immunoglobulin heavy chain variable region and an immunoglobulin light chain variable region, wherein the heavy chain variable region comprises: (a) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO:4; (b) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO:5; and (c) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:6; and wherein the light chain variable region comprises: (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO:7; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:8; and (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO:9, and wherein the binding molecule binds to the C2b domain of human complement factor C2. wherein the binding molecule comprises an immunoglobulin heavy chain variable region and an immunoglobulin light chain variable region, wherein the heavy chain variable region comprises: (a) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO:4; (b) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO:5; and (c) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:6; and (a) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO:4; (b) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO:5; and (c) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:6; and wherein the light chain variable region comprises: (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO:7; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:8; and (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO:9, and (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO:7; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:8; and (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO:9, and wherein the binding molecule binds to the C2b domain of human complement factor C2.
Sound blocker of a viscoelastic material, characterized in that the sound blocker comprises a round frame with an upperside having a convex form, and with an underside arranged for receiving a furniture pad , and the frame is in its centre provided with a through hole , for receiving a nail or a screw, and the frame is in the underside provided with an open, round recess in the centre around the hole , with room for a nail head or a screw head, and between this recess and inside a rounded outer edge of the frame , the frame is provided with arcuate, open, hollowed recesses , which constitutes air dampeners, and from the outer edge of the frame and inwards to the centre of the frame there are air channels , arranged for air which may pass in and out while the sound blocker is loaded or unloaded, and the air channels are connected to the hollowed recesses , and around a periphery of the frame there is a rim , and the frame is arranged to receive a furniture pad inside the rim .
A method for sending uplink information in an idle mode, wherein the method comprises: sending a random access request to an evolved NodeB, eNB; receiving a random access response, RAR, returned by the eNB, wherein the RAR carries first resource information of a first uplink resource allocated by the eNB; and sending uplink information to the eNB based on the first uplink resource, wherein the uplink information comprises partial information of indication information; the indication information comprises at least one of location update information, service establishment information, attach request information, and detach request information of user equipment, UE; wherein the uplink information further comprises resource request information which is used to request the eNB to allocate a second uplink resource to the UE, and the second uplink resource is used by the UE to send remaining information other than the partial information of the indication information. characterized in that the method further comprises detecting whether the first uplink resource of a default size that is allocated by the eNB by default is capable of accommodating the uplink information; and when a detection result is that the first uplink resource of the default size is incapable of accommodating the uplink information, instructing the eNB to allocate a first uplink resource of a size larger than the default size by selecting a target preamble from reserved special preambles, and then sending, to the eNB, a random access request that carries the target preamble. sending a random access request to an evolved NodeB, eNB; receiving a random access response, RAR, returned by the eNB, wherein the RAR carries first resource information of a first uplink resource allocated by the eNB; and sending uplink information to the eNB based on the first uplink resource, wherein the uplink information comprises partial information of indication information; the indication information comprises at least one of location update information, service establishment information, attach request information, and detach request information of user equipment, UE; wherein the uplink information further comprises resource request information which is used to request the eNB to allocate a second uplink resource to the UE, and the second uplink resource is used by the UE to send remaining information other than the partial information of the indication information. characterized in that the method further comprises detecting whether the first uplink resource of a default size that is allocated by the eNB by default is capable of accommodating the uplink information; and when a detection result is that the first uplink resource of the default size is incapable of accommodating the uplink information, instructing the eNB to allocate a first uplink resource of a size larger than the default size by selecting a target preamble from reserved special preambles, and then sending, to the eNB, a random access request that carries the target preamble.
A spline cleaning device for cleaning splines formed within a component of a gas turbine engine , the spline cleaning device comprising: a central support ; a central support sleeve that surrounds and is movable with respect to the central support; a scraper having protrusions , the scraper being attachable to the central support sleeve, and configured to remove surface contaminants from splines; and a collector sump that is attachable to the central support and configured to collect the surface contaminants that have been removed from the splines. a central support ; a central support sleeve that surrounds and is movable with respect to the central support; a scraper having protrusions , the scraper being attachable to the central support sleeve, and configured to remove surface contaminants from splines; and a collector sump that is attachable to the central support and configured to collect the surface contaminants that have been removed from the splines.
Flow channel for a turbomachine, in particular a gas turbine, comprising a plurality of ribs (11-23) which are arranged between a radially inner lateral surface and a radially outer lateral surface of the flow channel and are distributed in the circumferential direction, wherein a first of the ribs has a first rib thickness (d 11 ) and a first rib length (l 11 ) and a second of the ribs a second rib thickness (d 12 ) and a second rib length (l 12 ), wherein the second rib length is smaller than the first rib length and/or the second rib thickness is smaller than the first rib thickness, and wherein a spacing (T 12 ) in the circumferential direction between the first rib and the second rib adjacent thereto and a spacing (T 23 ) in the circumferential direction between at least two adjacent ribs deviate from one another, and at least one of these ribs has a non-deflecting outer profile (A 11 , A 12 ) through which a working fluid is intended to flow, wherein at least one group (12-15, 17, 19, 21, 23) of identical ribs of the plurality of ribs is unevenly distributed in the circumferential direction, wherein a first internal structure having a first structural thickness (d 31 ) is arranged in the first rib, and a second internal structure having a second structural thickness (d 32 ) that is smaller than the first structural thickness is arranged in the second rib.
A method of laundering a fabric comprising the steps of; (i) contacting the fabric with a lipid esterase selected from class E.C. 3.1.1.3 by washing the fabric in a wash liquor comprising the lipid esterase, wherein said lipid esterase is a variant having at least 90% sequence identity to wild-type lipase from Thermomyces lanuginosus and having sequence substitutions T231R and N233R; (ii) contacting the fabric from step (i) with a soil; (iii) contacting the fabric from step (ii) with a laundry detergent composition, wherein the laundry detergent composition optionally comprises a detersive surfactant, and optionally comprises a lipid esterase. (i) contacting the fabric with a lipid esterase selected from class E.C. 3.1.1.3 by washing the fabric in a wash liquor comprising the lipid esterase, wherein said lipid esterase is a variant having at least 90% sequence identity to wild-type lipase from Thermomyces lanuginosus and having sequence substitutions T231R and N233R; (ii) contacting the fabric from step (i) with a soil; (iii) contacting the fabric from step (ii) with a laundry detergent composition, wherein the laundry detergent composition optionally comprises a detersive surfactant, and optionally comprises a lipid esterase.
Wire assembly for electric rotary machine comprising a plurality of phase coils (P1-P6), each phase coils (P1-P6) being aimed to be inserted in a dedicated set of slots of a stator , each phase coil (P1-P6) comprising a first part having an input (11-16) and a second part having an output (01-06), said first part and second part constituting a distributed wave winding, the first part and the second part being placed in the slots over each other in parallel planes, each phase coil (P1-P6) comprises: a plurality of straight portions aimed to be inserted into the slots of the stator , and a plurality of end-loop portions linking the straight portions , said end-loop portions linking a plurality of consecutive straight portions being positioned in a same layer (L1, L2) of conductors, wherein each phase coil (P1-P6) comprises a U-turn part linking the first and the second parts so that each phase coil (P1-P6) is composed of a single wire , - the input (11-16) and output (01-06) of a phase coil (P1-P6) being on the same side which is opposite to the side on which the U-turn is placed, in the U-turn part , a straight portion is linked to two straight portions positioned on the same side through end-loop portions , and in the U-turn part , the straight portion comprises 2. two flat portions each contained in one of the parallel planes and a slope portion , the slope portion connecting the parallel planes. each phase coils (P1-P6) being aimed to be inserted in a dedicated set of slots of a stator , each phase coil (P1-P6) comprising a first part having an input (11-16) and a second part having an output (01-06), said first part and second part constituting a distributed wave winding, the first part and the second part being placed in the slots over each other in parallel planes, each phase coil (P1-P6) comprises: a plurality of straight portions aimed to be inserted into the slots of the stator , and a plurality of end-loop portions linking the straight portions , said end-loop portions linking a plurality of consecutive straight portions being positioned in a same layer (L1, L2) of conductors, wherein each phase coil (P1-P6) comprises a U-turn part linking the first and the second parts so that each phase coil (P1-P6) is composed of a single wire , - the input (11-16) and output (01-06) of a phase coil (P1-P6) being on the same side which is opposite to the side on which the U-turn is placed, - the input (11-16) and output (01-06) of a phase coil (P1-P6) being on the same side which is opposite to the side on which the U-turn is placed, in the U-turn part , a straight portion is linked to two straight portions positioned on the same side through end-loop portions , and in the U-turn part , the straight portion comprises 2. two flat portions each contained in one of the parallel planes and a slope portion , the slope portion connecting the parallel planes.
A computer-readable medium having computer-executable instructions, which when executed on a system comprising a destination machine , a source machine and a key server , enable said system to perform steps to facilitate migration of computer secrets, comprising: receiving , at the destination machine , a sealed set of data sent from the source machine , wherein the sealed set of data includes a secret encrypted based on a migration key and a sealed policy to access the secret , wherein the policy further includes the migration key (K m ), the policy sealed with a key known from the key server and maintained at a trusted platform module TPM device of the source machine ; providing from the destination machine the received sealed set of data to the key server ; performing attestation with the key server to attest that the destination machine is entitled to access the encrypted secret , wherein performing attestation with the key server includes providing data from the destination machine including the sealed set of data and data corresponding to measured boot code, wherein the measured boot code includes signed register values that indicate the destination machine's configuration measured in a boot code process and maintained in the destination machine; and decrypting the encrypted secret at the destination machine based on the migration key (K m ), wherein the destination machine receives the migration key from the key server if the key server verifies that the destination machine is entitled to decrypt the secret based on the policy to access the secret and on the measured boot code as part of the attestation. receiving , at the destination machine , a sealed set of data sent from the source machine , wherein the sealed set of data includes a secret encrypted based on a migration key and a sealed policy to access the secret , wherein the policy further includes the migration key (K m ), the policy sealed with a key known from the key server and maintained at a trusted platform module TPM device of the source machine ; providing from the destination machine the received sealed set of data to the key server ; performing attestation with the key server to attest that the destination machine is entitled to access the encrypted secret , wherein performing attestation with the key server includes providing data from the destination machine including the sealed set of data and data corresponding to measured boot code, wherein the measured boot code includes signed register values that indicate the destination machine's configuration measured in a boot code process and maintained in the destination machine; and decrypting the encrypted secret at the destination machine based on the migration key (K m ), wherein the destination machine receives the migration key from the key server if the key server verifies that the destination machine is entitled to decrypt the secret based on the policy to access the secret and on the measured boot code as part of the attestation.
A method comprising: receiving a radiographic image dataset representing a sequential radiographic three-dimensional scan of a region of a human subject , wherein said radiographic image dataset encodes one or more radiopaque markers placed in the region of the human subject receiving 3D image data, acquired during said sequential radiographic 3D scan, representing an optical scan of a surface of said region, wherein said 3D image data is acquired simultaneously with said sequential radiographic scan of said human subject; registering the 3D image data to a surface mesh model of the human subject based on, at least in part, the one or more radiopaque markers; synchronizing said optical scan with said radiographic scan in a time-dependent manner based, at least in part, on a known pixel sampling pitch of said radiographic scan; tracking a time-dependent motion of said subject during said acquisition within the region of said human subject, relative to a specified position, based, at least in part, on said 3D image data registered to the surface mesh model of the human subject; and using said tracking to determine corrections for said radiographic image dataset, based, at least in part, on a known transformation between corresponding coordinate systems of said radiographic image dataset and said 3D image data. receiving a radiographic image dataset representing a sequential radiographic three-dimensional scan of a region of a human subject , wherein said radiographic image dataset encodes one or more radiopaque markers placed in the region of the human subject receiving 3D image data, acquired during said sequential radiographic 3D scan, representing an optical scan of a surface of said region, wherein said 3D image data is acquired simultaneously with said sequential radiographic scan of said human subject; registering the 3D image data to a surface mesh model of the human subject based on, at least in part, the one or more radiopaque markers; synchronizing said optical scan with said radiographic scan in a time-dependent manner based, at least in part, on a known pixel sampling pitch of said radiographic scan; tracking a time-dependent motion of said subject during said acquisition within the region of said human subject, relative to a specified position, based, at least in part, on said 3D image data registered to the surface mesh model of the human subject; and using said tracking to determine corrections for said radiographic image dataset, based, at least in part, on a known transformation between corresponding coordinate systems of said radiographic image dataset and said 3D image data.