mhurhangee/patent-ind-claim-en huggingface dataset:
A method, implemented using a computer system that includes one or more processors and system memory, for screening a plurality of different protein variants for interaction with a ligand, wherein the plurality of different protein variants comprises at least ten different variants, and wherein the protein variants differ from one another by at least one mutation, the method comprising: (a) creating or receiving a structural model for each of the plurality of variants, wherein each structural model contains a three dimensional computational representation of the active site of the variant; (b) for each protein variant, docking, by the computer system, a computational representation of the ligand to the three dimensional computational representation of the active site of the protein variant, wherein docking (i) generates a plurality of poses of the ligand in the active site of the protein variant, wherein a pose comprises a position or orientation of the ligand with respect to the active site, and (ii) identifies energetically favorable poses of the ligand in the active site, wherein an energetically favorable pose is a pose having an energy that is favorable for binding between the ligand and the protein variant; (c) for each energetically favorable pose, determining whether the pose is active, wherein an active pose meets one or more constraints for the ligand to undergo a particular interaction with the protein variant; and (d) selecting at least one of the protein variants having an active site in which the ligand has one or more active poses as determined in (c). (a) creating or receiving a structural model for each of the plurality of variants, wherein each structural model contains a three dimensional computational representation of the active site of the variant; (b) for each protein variant, docking, by the computer system, a computational representation of the ligand to the three dimensional computational representation of the active site of the protein variant, wherein docking (i) generates a plurality of poses of the ligand in the active site of the protein variant, wherein a pose comprises a position or orientation of the ligand with respect to the active site, and (ii) identifies energetically favorable poses of the ligand in the active site, wherein an energetically favorable pose is a pose having an energy that is favorable for binding between the ligand and the protein variant; (c) for each energetically favorable pose, determining whether the pose is active, wherein an active pose meets one or more constraints for the ligand to undergo a particular interaction with the protein variant; and (d) selecting at least one of the protein variants having an active site in which the ligand has one or more active poses as determined in (c).
An image printing apparatus comprising: a print head configured to print an image on a printing medium ; a conveyance unit configured to convey the printing medium in a conveyance direction (Y); a carriage configured to mount the print head and to be movable in an intersection direction (X) intersecting the conveyance direction (Y); a detection unit mounted on the carriage and configured to detect an end of the printing medium in the intersection direction (X); a cutting unit located downstream of a printing region of the print head in the conveyance direction (Y) and capable of cutting the printing medium for a cutting operation by being moved in the intersection direction (X); and a control unit configured to control movement of the carriage such that the detection unit detects a position of the end of the printing medium during movement of the cutting unit for the cutting operation. a print head configured to print an image on a printing medium ; a conveyance unit configured to convey the printing medium in a conveyance direction (Y); a carriage configured to mount the print head and to be movable in an intersection direction (X) intersecting the conveyance direction (Y); a detection unit mounted on the carriage and configured to detect an end of the printing medium in the intersection direction (X); a cutting unit located downstream of a printing region of the print head in the conveyance direction (Y) and capable of cutting the printing medium for a cutting operation by being moved in the intersection direction (X); and a control unit configured to control movement of the carriage such that the detection unit detects a position of the end of the printing medium during movement of the cutting unit for the cutting operation.
An electric motor comprising a rotor comprising a magnetized portion defining a plurality of rotor poles, and a stator comprising a plurality of coils and a magnetic armature defining a magnetic circuit, each coil comprising a coil core , in the form of an insert made of a magnetic material fixed to the magnetic armature, the coil core comprising a tooth defining a magnetic pole of the stator, the magnetic armature as well as the coil core being formed and cut out of sheet metals, a major plane ( M ) of the sheet metals being perpendicular to the axis of rotation ( A ) of the rotor, characterized in that the tooth includes extensions extending in an axial direction, the extensions of the tooth being bent orthogonally on either side of the major plane ( M ), and a height ( H' ) of the tooth and a height ( H ) of the coil being substantially identical to a height ( H" ) of the magnetized portion of the rotor.
A position indicator having a pen shape, and electrostatically interacting with a sensor of a position detection device , the position indicator comprising: a conductive core body ; and a shielding member for electrostatically shielding the core body ; wherein the position indicator is configured to receive a request signal transmitted from the position detection device, characterized in that the position indicator is configured to, in response to the received request signal, - perform a signal transmission through the core body in a first state in which the shielding member is grounded in terms of alternating current, and - perform a signal transmission through the core body in a second state in which the shielding member is in a floating state in terms of potential, and characterized in that , in response to the request signal, the control circuit is configured to perform, in a predetermined sequence, the signal transmission from the core body in the first state and the signal transmission from the core body in the second state. a conductive core body ; and a shielding member for electrostatically shielding the core body ; wherein the position indicator is configured to receive a request signal transmitted from the position detection device, characterized in that the position indicator is configured to, in response to the received request signal, - perform a signal transmission through the core body in a first state in which the shielding member is grounded in terms of alternating current, and - perform a signal transmission through the core body in a second state in which the shielding member is in a floating state in terms of potential, - perform a signal transmission through the core body in a first state in which the shielding member is grounded in terms of alternating current, and - perform a signal transmission through the core body in a second state in which the shielding member is in a floating state in terms of potential, and characterized in that , in response to the request signal, the control circuit is configured to perform, in a predetermined sequence, the signal transmission from the core body in the first state and the signal transmission from the core body in the second state.
An electrosurgical instrument comprising: a flexible coaxial cable configured to convey microwave energy; a radiating tip portion connected at a distal end of the coaxial cable and configured to receive the microwave energy, wherein the radiating tip portion is substantially rigid to permit insertion into biological tissue, and wherein the radiating tip portion comprises: a proximal coaxial transmission line for conveying the microwave energy; and a distal needle tip mounted at a distal end of the coaxial transmission line, wherein the distal needle tip is configured to operate as a half wavelength transformer to deliver the microwave energy from the distal needle tip. a flexible coaxial cable configured to convey microwave energy; a radiating tip portion connected at a distal end of the coaxial cable and configured to receive the microwave energy, wherein the radiating tip portion is substantially rigid to permit insertion into biological tissue, and wherein the radiating tip portion comprises: a proximal coaxial transmission line for conveying the microwave energy; and a distal needle tip mounted at a distal end of the coaxial transmission line, a proximal coaxial transmission line for conveying the microwave energy; and a distal needle tip mounted at a distal end of the coaxial transmission line, wherein the distal needle tip is configured to operate as a half wavelength transformer to deliver the microwave energy from the distal needle tip.
A device of a New Radio, NR, User Equipment, UE, the device including a Radio Frequency, RF, interface , and processing circuitry coupled to the RF interface , the processing circuitry configured to: decode configuration information from a NR evolved Node B, gNodeB, regarding a spatial relationship for Sounding Reference Signal, SRS, resources of an aperiodic SRS resource set; and encode a SRS signal for transmission to the gNodeB including information on the aperiodic SRS resource set, the SRS signal to be on a transmit, TX, beam that is based on the configuration information, wherein the aperiodic SRS resource set is for a non-codebook based transmission, and a minimal scheduling offset between a last symbol of a scheduling downlink control information, DCI, and a first symbol of the SRS signal is equal to a scheduling offset M2 if an Channel State Information, CSI, Reference Signal, CSI-RS, is configured for the UE, and is equal to a scheduling offset M1 if the CSI-RS is not configured for the UE, wherein M2 is larger than M1. decode configuration information from a NR evolved Node B, gNodeB, regarding a spatial relationship for Sounding Reference Signal, SRS, resources of an aperiodic SRS resource set; and encode a SRS signal for transmission to the gNodeB including information on the aperiodic SRS resource set, the SRS signal to be on a transmit, TX, beam that is based on the configuration information, wherein the aperiodic SRS resource set is for a non-codebook based transmission, and a minimal scheduling offset between a last symbol of a scheduling downlink control information, DCI, and a first symbol of the SRS signal is equal to a scheduling offset M2 if an Channel State Information, CSI, Reference Signal, CSI-RS, is configured for the UE, and is equal to a scheduling offset M1 if the CSI-RS is not configured for the UE, wherein M2 is larger than M1.
A cobalt complex having the following formula : wherein each of R 1 to R 3 independently is hydrogen or C 1 -C 30 monovalent organic group which may be substituted with halogen and which may be interrupted by at least one atom selected from oxygen, nitrogen and silicon, at least one set of R 1 to R 3 may bond together to form a C 1 -C 30 crosslinking substituent which may be interrupted by at least one atom selected from oxygen, nitrogen and silicon, each L independently is an isocyanide ligand having the following formula : CN-R 4 wherein R 4 is C 1 -C 30 monovalent organic group which may be substituted with halogen and which may be interrupted by at least one atom selected from oxygen, nitrogen, sulfur and silicon, and n is 4. wherein each of R 1 to R 3 independently is hydrogen or C 1 -C 30 monovalent organic group which may be substituted with halogen and which may be interrupted by at least one atom selected from oxygen, nitrogen and silicon, at least one set of R 1 to R 3 may bond together to form a C 1 -C 30 crosslinking substituent which may be interrupted by at least one atom selected from oxygen, nitrogen and silicon, each L independently is an isocyanide ligand having the following formula : CN-R 4 wherein R 4 is C 1 -C 30 monovalent organic group which may be substituted with halogen and which may be interrupted by at least one atom selected from oxygen, nitrogen, sulfur and silicon, and n is 4.
A perming rod having an outer peripheral surface around which hair is to be wound, comprising: a columnar core ; an elastic portion covering an outer peripheral surface of the core and formed of an elastic body; characterized by a waterproof surface portion covering an outer peripheral surface of the elastic portion; and a pin attached to each end portion of the elastic portion. a columnar core ; an elastic portion covering an outer peripheral surface of the core and formed of an elastic body; characterized by a waterproof surface portion covering an outer peripheral surface of the elastic portion; and a pin attached to each end portion of the elastic portion.
A solvent cement for bonding articles made of a thermoplastic resin wherein the solvent cement comprises a) a dissolved thermoplastic resin, b) a solvent for the thermoplastic resin indicated under item a), and c) an at least partially imidized acrylic polymer, wherein the solvent cement does not comprise tetrahydrofuran or N-Methyl-2-Pyrrolidone (NMP) and wherein the solvent cement does not comprise an aliphatic compound having a hydrocarbon ring with at least two ether groups in the ring structure, and wherein the dissolved thermoplastic resin indicated under item a) is PVC or CPVC, and wherein the at least partially imidized acrylic polymer indicated under item c) constitutes less than 75 wt. % of the total amount of dissolved thermoplastic resin of item a) and c) together. a) a dissolved thermoplastic resin, b) a solvent for the thermoplastic resin indicated under item a), and c) an at least partially imidized acrylic polymer,
Method for correcting a position probability distribution, wherein - at least two mobile systems determine a respective position probability distribution by way of a respective GNSS receiver, - at least one mobile system determines a distance to at least one second mobile system , - the at least two mobile systems exchange the determined position probability distributions with one another through a communication connection, characterized in that an improvement is made to the position probability distributions of the at least two mobile systems using the at least two determined position probability distributions and the distance between the at least two mobile systems . - at least two mobile systems determine a respective position probability distribution by way of a respective GNSS receiver, - at least one mobile system determines a distance to at least one second mobile system , - the at least two mobile systems exchange the determined position probability distributions with one another through a communication connection, characterized in that an improvement is made to the position probability distributions of the at least two mobile systems using the at least two determined position probability distributions and the distance between the at least two mobile systems .
A method for preparing a vulcanizable composition of matter, the method comprising: i. mixing, within a first mixing step, rubber, silica, and silica coupling agent to form a first masterbatch composition; ii. adding nicotinamide to the first masterbatch composition and mixing within a second mixing step to form a second masterbatch composition; and iii. adding a curative to the second masterbatch composition and mixing within a final mixing step. i. mixing, within a first mixing step, rubber, silica, and silica coupling agent to form a first masterbatch composition; ii. adding nicotinamide to the first masterbatch composition and mixing within a second mixing step to form a second masterbatch composition; and iii. adding a curative to the second masterbatch composition and mixing within a final mixing step.
Lighting and/or signalling device , notably for a motor vehicle, comprising: - a housing (B), - at least one mounting member arranged to allow the housing to be mounted on a motor vehicle chassis (C), this mounting member comprising a cavity , - a fixing element arranged to allow the mounting member to be fixed onto the housing by the insertion of this fixing element, at least partially, into the cavity of the mounting member, the fixing element being inserted into the cavity of the mounting member from the inside of the housing, and the housing comprising an orifice for the passage of the fixing element, characterized in that the orifice of the housing is made seal-tight using a seal , and in that the cavity is blind. - a housing (B), - at least one mounting member arranged to allow the housing to be mounted on a motor vehicle chassis (C), this mounting member comprising a cavity , - a fixing element arranged to allow the mounting member to be fixed onto the housing by the insertion of this fixing element, at least partially, into the cavity of the mounting member,
A foamable polystyrene mixture comprising: a polymer composition comprising polystyrene; a blowing agent composition comprising carbon dioxide, HFO-1234ze, and HFC-152a; from 0.05 to 10 wt.%, based upon the total weight of the foamable polystyrene mixture, of at least one non-VOC processing aid comprising one or more of fatty acids, ethylene oxide/propylene oxide block copolymer, styrene-methyl methacrylate copolymer, and a dispersion of organic salt of a fatty acid in ethylene vinyl acetate copolymer; and from 0.005 to 5 wt.% of an infrared attenuating agent, based upon the total weight of the foamable polystyrene mixture. a polymer composition comprising polystyrene; a blowing agent composition comprising carbon dioxide, HFO-1234ze, and HFC-152a; from 0.05 to 10 wt.%, based upon the total weight of the foamable polystyrene mixture, of at least one non-VOC processing aid comprising one or more of fatty acids, ethylene oxide/propylene oxide block copolymer, styrene-methyl methacrylate copolymer, and a dispersion of organic salt of a fatty acid in ethylene vinyl acetate copolymer; and from 0.005 to 5 wt.% of an infrared attenuating agent, based upon the total weight of the foamable polystyrene mixture.
A liquid supply system supplying a liquid to a plurality of printers , the liquid supply system comprising: a plurality of tubes configuring a supply flow path (W0; W10; W20; W30; S0) of the liquid to the printers, the plurality of tubes being connected to a tank configured to store the liquid, the tank being positioned outside the printers and provided further upstream than the printers in the supply flow path, and the liquid flowing through the plurality of tubes between the tank and the printers; a liquid delivery mechanism being a mechanism provided in the plurality of tubes, and configured to switch between a liquid delivery state of the liquid flowing between the tank and the printers via the plurality of tubes, and a stopped state of stopping the liquid from flowing between the tank and the printers via the plurality of tubes; and a processor (41; 51), wherein the processor is configured to perform circulation processing (S17) including supply processing (S4) of supplying the liquid from the tank toward the printers via the plurality of tubes, by controlling the liquid delivery mechanism to be in the liquid delivery state, and return processing (S6) of returning the liquid from the printers toward the tank via the plurality of tubes, by controlling the liquid delivery mechanism to be in the liquid delivery state. a plurality of tubes configuring a supply flow path (W0; W10; W20; W30; S0) of the liquid to the printers, the plurality of tubes being connected to a tank configured to store the liquid, the tank being positioned outside the printers and provided further upstream than the printers in the supply flow path, and the liquid flowing through the plurality of tubes between the tank and the printers; a liquid delivery mechanism being a mechanism provided in the plurality of tubes, and configured to switch between a liquid delivery state of the liquid flowing between the tank and the printers via the plurality of tubes, and a stopped state of stopping the liquid from flowing between the tank and the printers via the plurality of tubes; and a processor (41; 51), wherein the processor is configured to perform circulation processing (S17) including supply processing (S4) of supplying the liquid from the tank toward the printers via the plurality of tubes, by controlling the liquid delivery mechanism to be in the liquid delivery state, and return processing (S6) of returning the liquid from the printers toward the tank via the plurality of tubes, by controlling the liquid delivery mechanism to be in the liquid delivery state. supply processing (S4) of supplying the liquid from the tank toward the printers via the plurality of tubes, by controlling the liquid delivery mechanism to be in the liquid delivery state, and return processing (S6) of returning the liquid from the printers toward the tank via the plurality of tubes, by controlling the liquid delivery mechanism to be in the liquid delivery state.
A first apparatus, comprising: at least one processor; and at least one memory including computer program code; wherein the at least one memory and the computer program code are configured to, with the at least one processor, cause the first apparatus to: transmit, to a second apparatus, a request for execution of a task, the task comprising a plurality of functions to be executed; generate a first validation key from identification information of the plurality of functions based on an expected execution plan in at least one trusted execution environment of the second apparatus; receive, from the second apparatus, an execution result for the task and a second validation key; and determine correctness of the execution result by comparing the first validation key with the second validation key. at least one processor; and at least one memory including computer program code; wherein the at least one memory and the computer program code are configured to, with the at least one processor, cause the first apparatus to: transmit, to a second apparatus, a request for execution of a task, the task comprising a plurality of functions to be executed; generate a first validation key from identification information of the plurality of functions based on an expected execution plan in at least one trusted execution environment of the second apparatus; receive, from the second apparatus, an execution result for the task and a second validation key; and determine correctness of the execution result by comparing the first validation key with the second validation key. transmit, to a second apparatus, a request for execution of a task, the task comprising a plurality of functions to be executed; generate a first validation key from identification information of the plurality of functions based on an expected execution plan in at least one trusted execution environment of the second apparatus; receive, from the second apparatus, an execution result for the task and a second validation key; and determine correctness of the execution result by comparing the first validation key with the second validation key.