mhurhangee/patent-ind-claim-en huggingface dataset:
An antibody, or antigen-binding portion thereof, capable of binding the human gamma isoform of protein kinase C (PKCg) or a proteolytic fragment of PKCg, wherein the antigen-binding portion of the antibody comprises a set of six CDRs: CDR-H1, CDR-H2, CDR-H3, CDR-L1, CDR-L2, and CDR-L3, which CDR set is selected from the group of CDR sets (CDR Set Nos. 1 to 3) having the six respective SEQ ID NOs: as follows: CDR Set No. CDR CDR Amino Acid Sequence SEQ ID NO: 1 CDR-H1 GFSLNYYA SEQ ID NO:3 CDR-H2 ITSDTT SEQ ID NO:4 CDR-H3 ASGGSTTSPAL SEQ ID NO:5 CDR-L1 QSVWSKNY SEQ ID NO:6 CDR-L2 SAS SEQ ID NO:7 CDR-L3 LGSYDCRSADCWT SEQ ID NO:8 2 CDR-H1 GFSLSSYA SEQ ID NO:9 CDR-H2 IISGGSA SEQ ID NO:10 CDR-H3 ARAKSGTYTGDYFTL SEQ ID NO:11 CDR-L1 ESIGNA SEQ ID NO:12 CDR-L2 RAS SEQ ID NO:13 CDR-L3 QSYVGSRSTGYNV SEQ ID NO:14 3 CDR-H1 GFTLTTYW SEQ ID NO:15 CDR-H2 ILTGSGST SEQ ID NO:16 CDR-H3 ARYGGDATYNENL SEQ ID NO:17 CDR-L1 QSVYNNNR SEQ ID NO:18 CDR-L2 GVS SEQ ID NO:19 CDR-L3 LGGYDCASADCYA SEQ ID NO:20
A method of making an electrochromic, EC, device comprising sputter depositing on a substrate an EC film which comprises tungsten oxide, characterized in that the method comprises: applying an electrical bias equal to or lower than -400 V to the substrate ; and during application of the electrical bias to the substrate , sputter depositing on the substrate the EC film , the sputter deposition being performed in an environment at a pressure less than 5 mTorr, the application of the electrical bias being performed to promote energetic ion bombardment during the sputter deposition, in making the EC device in which the as-deposited EC film is at least partially nanocrystalline. applying an electrical bias equal to or lower than -400 V to the substrate ; and during application of the electrical bias to the substrate , sputter depositing on the substrate the EC film , the sputter deposition being performed in an environment at a pressure less than 5 mTorr, the application of the electrical bias being performed to promote energetic ion bombardment during the sputter deposition, in making the EC device in which the as-deposited EC film is at least partially nanocrystalline.
A water heater and thermostatic control device for a lavatory faucet , comprising: a hot water tank having a reservoir and a heating element disposed within the reservoir , the heating element configured to heat ambient temperature water received by the reservoir to produce hot water; a mixing valve configured to mix hot water received from the hot water tank with ambient temperature water to produce mixed temperature water; a temperature control unit ; said mixing valve and temperature control unit being configured to control the temperature of said mixed temperature water; characterised by a shut off valve configured to permit flow of said mixed temperature water to the lavatory faucet ; and said temperature control unit being configured to communicate with the lavatory faucet , wherein the temperature control unit is further configured to open the shut off valve when instructed by the lavatory faucet , wherein the hot water tank , the mixing valve , the shut off valve and the temperature control unit are arranged within a body of the device , wherein the temperature control unit is arranged within a lower section of the device , and wherein the lower section is disposed under the reservoir . a hot water tank having a reservoir and a heating element disposed within the reservoir , the heating element configured to heat ambient temperature water received by the reservoir to produce hot water; a mixing valve configured to mix hot water received from the hot water tank with ambient temperature water to produce mixed temperature water; a temperature control unit ; said mixing valve and temperature control unit being configured to control the temperature of said mixed temperature water; characterised by a shut off valve configured to permit flow of said mixed temperature water to the lavatory faucet ; and said temperature control unit being configured to communicate with the lavatory faucet , wherein the temperature control unit is further configured to open the shut off valve when instructed by the lavatory faucet , wherein the hot water tank , the mixing valve , the shut off valve and the temperature control unit are arranged within a body of the device , wherein the temperature control unit is arranged within a lower section of the device , and wherein the lower section is disposed under the reservoir .
A base station including bidirectional data transmission to a node , comprising: means for receiving a data packet transmitted by the node at a node transmission frequency, the node transmission frequency being derived from a frequency generator of the node ; means for determining the node transmission frequency based on the data packet received and for determining a deviation of the frequency generator of the node based on a frequency deviation between the determined node transmission frequency and a set node transmission frequency associated with the node ; means for transmitting a data packet to the node at a base station transmission frequency, the means for transmitting the data packet being configured to set the base station transmission frequency based on the determined deviation of the frequency generator of the node ; wherein the means is a means for receiving a data packet transmitted by the node at a node transmission frequency and at a node transmission point in time; wherein the node transmission point in time is derived from a timer of the node , the frequency generator of the node and the timer of the node being coupled; wherein the base station further comprises a means for determining the node transmission point in time based on the determined derivation of the frequency generator of the node and the coupling between the frequency generator of the node and the timer of the node . means for receiving a data packet transmitted by the node at a node transmission frequency, the node transmission frequency being derived from a frequency generator of the node ; means for determining the node transmission frequency based on the data packet received and for determining a deviation of the frequency generator of the node based on a frequency deviation between the determined node transmission frequency and a set node transmission frequency associated with the node ; means for transmitting a data packet to the node at a base station transmission frequency, the means for transmitting the data packet being configured to set the base station transmission frequency based on the determined deviation of the frequency generator of the node ; wherein the means is a means for receiving a data packet transmitted by the node at a node transmission frequency and at a node transmission point in time; wherein the node transmission point in time is derived from a timer of the node , the frequency generator of the node and the timer of the node being coupled; wherein the base station further comprises a means for determining the node transmission point in time based on the determined derivation of the frequency generator of the node and the coupling between the frequency generator of the node and the timer of the node .
A feed tube of a catheter system with a tip portion that tapers in the delivered state and expands when the functional element is slid out, which tip portion is formed from a temporarily glued e-PTFE laminate that delaminates when stretched, characterized in that the e-PTFE laminate is glued using an adhesive that has a fatty acid as a component essential to function.
A computer-implemented method for facilitating processing within a computing environment, the computer-implemented method comprising: obtaining , by a processor of the computing environment, an instruction to perform a function of a plurality of functions supported by the instruction, the instruction comprising an operation code specifying an operation and being a single architected instruction of an instruction set architecture, the instruction complying to an industry standard for compression and the operation code being separate from an indication of the function to be performed; and executing the instruction , the executing including: performing the function specified by the instruction, wherein, based on the function being a compression function or a decompression function, the performing comprises, by a compress/decompress component of the processor, transforming state of input data between an uncompressed form of the input data and a compressed form of the input data to provide a transformed state of data; accessing , during performing the function, history relating to the function, the history to be used in transforming the state of the input data between the uncompressed form and the compressed form; and providing as output the transformed state of data to be used in performing a task. obtaining , by a processor of the computing environment, an instruction to perform a function of a plurality of functions supported by the instruction, the instruction comprising an operation code specifying an operation and being a single architected instruction of an instruction set architecture, the instruction complying to an industry standard for compression and the operation code being separate from an indication of the function to be performed; and executing the instruction , the executing including: performing the function specified by the instruction, wherein, based on the function being a compression function or a decompression function, the performing comprises, by a compress/decompress component of the processor, transforming state of input data between an uncompressed form of the input data and a compressed form of the input data to provide a transformed state of data; accessing , during performing the function, history relating to the function, the history to be used in transforming the state of the input data between the uncompressed form and the compressed form; and providing as output the transformed state of data to be used in performing a task. performing the function specified by the instruction, wherein, based on the function being a compression function or a decompression function, the performing comprises, by a compress/decompress component of the processor, transforming state of input data between an uncompressed form of the input data and a compressed form of the input data to provide a transformed state of data; accessing , during performing the function, history relating to the function, the history to be used in transforming the state of the input data between the uncompressed form and the compressed form; and providing as output the transformed state of data to be used in performing a task.
Method for controlling a parking brake of a vehicle , wherein the method comprises the following steps: receiving an activation signal which represents a manual operating unit of a parking brake being activated by a driver; reading a speed decrease signal which represents a value of a speed decrease of the vehicle upon receiving the activation signal ; emitting a delay signal as a function of the value of the speed decrease , wherein the delay signal is configured for delaying a complete engagement of the parking brake, wherein the step of emitting is terminated after a predetermined temporal period, or is terminated when a standstill signal which represents a standstill of the vehicle is read; further emitting a parking brake signal which is configured for causing the complete engagement of the parking brake in response to the termination of the emitting; characterized by a step of transmitting a release signal which is configured for releasing the parking brake when a further activation signal which represents the manual operating unit being released by the driver is received within a predetermined time upon emitting the parking brake signal. receiving an activation signal which represents a manual operating unit of a parking brake being activated by a driver; reading a speed decrease signal which represents a value of a speed decrease of the vehicle upon receiving the activation signal ; emitting a delay signal as a function of the value of the speed decrease , wherein the delay signal is configured for delaying a complete engagement of the parking brake, wherein the step of emitting is terminated after a predetermined temporal period, or is terminated when a standstill signal which represents a standstill of the vehicle is read; further emitting a parking brake signal which is configured for causing the complete engagement of the parking brake in response to the termination of the emitting; characterized by a step of transmitting a release signal which is configured for releasing the parking brake when a further activation signal which represents the manual operating unit being released by the driver is received within a predetermined time upon emitting the parking brake signal.
A method for detecting positional deviation of an electrode assembly during winding, the electrode assembly comprising a first electrode sheet and a second electrode sheet , and the method comprising: an image obtaining step of obtaining a plurality of first images (T1) and a plurality of second images (T2) by a photographing unit during the winding process of the electrode assembly , the first image (T1) comprising the first electrode sheet , and the second image (T2) comprising the second electrode sheet , an image matching step of matching a first image (T1) with a second image (T2), the first image (T1) and the second image (T2) containing the same or corresponding identification objects , which are a tab of the first electrode sheet and a tab of the second electrode sheet in the same winding layer, and a deviation determining step of determining whether the electrode assembly is deviated in a group of matching first and second images (T2) according to the boundary of the first electrode sheet in the first image (T1) and/or the boundary of the second electrode sheet in the second image (T2). an image obtaining step of obtaining a plurality of first images (T1) and a plurality of second images (T2) by a photographing unit during the winding process of the electrode assembly , the first image (T1) comprising the first electrode sheet , and the second image (T2) comprising the second electrode sheet , an image matching step of matching a first image (T1) with a second image (T2), the first image (T1) and the second image (T2) containing the same or corresponding identification objects , which are a tab of the first electrode sheet and a tab of the second electrode sheet in the same winding layer, and a deviation determining step of determining whether the electrode assembly is deviated in a group of matching first and second images (T2) according to the boundary of the first electrode sheet in the first image (T1) and/or the boundary of the second electrode sheet in the second image (T2).
A positive-electrode active material for a nonaqueous electrolyte secondary battery comprising: a lithium transition metal composite oxide particles forming primary particles having a layered structure and containing nickel; and oxides adhering to the surface of the lithium transition metal composite oxide particles, the oxides including an oxide containing lithium and aluminum and an oxide containing lithium and boron, wherein the lithium transition metal composite oxide particles comprise secondary particles formed by aggregation of said primary particles containing a solid solution of aluminum in a surface layer having a depth of 100 nm from the surfaces of the primary particles, and wherein the positive-electrode active material has a composition with a difference of more than 0.22 mol% and less than 0.6 mol% between a ratio of a number of moles of aluminum in the solid solution in the surface layer of the primary particles relative to a total number of moles of metal other than lithium in the lithium transition metal composite oxide particle and a ratio of a number of moles of aluminum present in a region other than the surface layer of the primary particles relative to the total number of moles of metal other than lithium in the lithium transition metal composite oxide particle, wherein a content ratio of the oxide containing lithium and aluminum to the oxide containing lithium and boron is 1 or less in terms of aluminum and boron. a lithium transition metal composite oxide particles forming primary particles having a layered structure and containing nickel; and oxides adhering to the surface of the lithium transition metal composite oxide particles, the oxides including an oxide containing lithium and aluminum and an oxide containing lithium and boron, wherein the lithium transition metal composite oxide particles comprise secondary particles formed by aggregation of said primary particles containing a solid solution of aluminum in a surface layer having a depth of 100 nm from the surfaces of the primary particles, and wherein the positive-electrode active material has a composition with a difference of more than 0.22 mol% and less than 0.6 mol% between a ratio of a number of moles of aluminum in the solid solution in the surface layer of the primary particles relative to a total number of moles of metal other than lithium in the lithium transition metal composite oxide particle and a ratio of a number of moles of aluminum present in a region other than the surface layer of the primary particles relative to the total number of moles of metal other than lithium in the lithium transition metal composite oxide particle, wherein a content ratio of the oxide containing lithium and aluminum to the oxide containing lithium and boron is 1 or less in terms of aluminum and boron.
A cell penetrating peptide (CPP) for transporting a selected molecule or agent across a cellular membrane consisting of the amino acid sequence: i) RRVQIWFQNKRAKVKR i) RRVQIWFQNKRAKVKR
A communication method, comprising: determining , by an access network device, a power parameter, wherein the power parameter comprises at least one of a transmit power of a terminal on a first carrier and a power adjustment parameter, and the first carrier is an uplink carrier; sending , by the access network device, on a second carrier first information to the terminal, wherein the first information is used to indicate the power parameter, wherein the power parameter comprises an initial transmit power of the terminal on the first carrier, and the first information is used to indicate the initial transmit power; and receiving, by the access network device, an uplink signal sent by the terminal based on the power parameter. determining , by an access network device, a power parameter, wherein the power parameter comprises at least one of a transmit power of a terminal on a first carrier and a power adjustment parameter, and the first carrier is an uplink carrier; sending , by the access network device, on a second carrier first information to the terminal, wherein the first information is used to indicate the power parameter, wherein the power parameter comprises an initial transmit power of the terminal on the first carrier, and the first information is used to indicate the initial transmit power; and receiving, by the access network device, an uplink signal sent by the terminal based on the power parameter.
A composite material in places containing particles of a mixed lithium-metal oxide with a coating of non-crystalline pyrolysis carbon, wherein the mixed lithium-metal oxide i) is a doped or undoped lithium-transition metal phosphate, wherein the transition metal of the lithium-transition metal phosphate is Fe, Co, Mn or Ni, or ii) is a doped or undoped lithium-titanium oxide together with discrete particles of crystalline elemental carbon provided in places with a layer of non-crystalline pyrolysis carbon, wherein the crystalline elemental carbon is not VGCF (vapour-grown carbon fibre) carbon. i) is a doped or undoped lithium-transition metal phosphate, wherein the transition metal of the lithium-transition metal phosphate is Fe, Co, Mn or Ni, or ii) is a doped or undoped lithium-titanium oxide together with discrete particles of crystalline elemental carbon provided in places with a layer of non-crystalline pyrolysis carbon, wherein the crystalline elemental carbon is not VGCF (vapour-grown carbon fibre) carbon.
A bone screw , comprising: a proximal end and a distal end spaced from the proximal end in a distal direction along a longitudinal axis (X) of the bone screw ; a cannulation extending from the proximal end to the distal end ; a threaded region extending along at least a portion of a length of the screw , the length extending from the proximal end to the distal end , the threaded region defining at least one external thread that extends about the longitudinal axis (X) along a helical path , the threaded region including at least one flute that extends to the distal end of the bone screw , the at least one flute defining an associated at least one cutting tooth that, in turn, defines a cutting face oriented so as to define an angle with respect to the longitudinal axis (X), the angle (α) in the range of 5 degrees to 25 degrees, wherein the flute circumferentially interrupts at least a portion of the external thread ; and characterized in that the at least one cutting tooth defines a cutting edge that extends radially outwardly and distally from an interface with the cannulation to a cutting tip at a distal terminus of at least one cutting tooth . a proximal end and a distal end spaced from the proximal end in a distal direction along a longitudinal axis (X) of the bone screw ; a cannulation extending from the proximal end to the distal end ; a threaded region extending along at least a portion of a length of the screw , the length extending from the proximal end to the distal end , the threaded region defining at least one external thread that extends about the longitudinal axis (X) along a helical path , the threaded region including at least one flute that extends to the distal end of the bone screw , the at least one flute defining an associated at least one cutting tooth that, in turn, defines a cutting face oriented so as to define an angle with respect to the longitudinal axis (X), the angle (α) in the range of 5 degrees to 25 degrees, wherein the flute circumferentially interrupts at least a portion of the external thread ; and characterized in that the at least one cutting tooth defines a cutting edge that extends radially outwardly and distally from an interface with the cannulation to a cutting tip at a distal terminus of at least one cutting tooth .