mhurhangee/patent-ind-claim-en huggingface dataset:
A method of sealing an autoclave , the method comprising: driving a layup mandrel in a process direction into an autoclave ; sealing the layup mandrel to the autoclave via seals , thereby forming a pressure chamber bounded by the layup mandrel and the autoclave ; hardening a preform at the layup mandrel into a composite part ; and driving the layup mandrel in the process direction out of the autoclave . driving a layup mandrel in a process direction into an autoclave ; sealing the layup mandrel to the autoclave via seals , thereby forming a pressure chamber bounded by the layup mandrel and the autoclave ; hardening a preform at the layup mandrel into a composite part ; and driving the layup mandrel in the process direction out of the autoclave .
A method for modifying a vehicle parameter based on bimanual input, the method comprising: acquiring sensor data from a first sensor input region (210-1 - 210-4) associated with a first finger of one hand of a user and from a second sensor input region (210-5, 210-6) associated with a second finger of the other hand of the user; analyzing the sensor data to determine a first location of the first finger within the first sensor input region (210-1 - 210-4) and a second location of the second finger within the second sensor input region (210-5, 210-6); characterized by selecting a first vehicle parameter based on the first location of the first finger; determining a modified first vehicle parameter based on determining that the second finger moved to the second location within a threshold period of time subsequent to the first finger moving to the first location; and controlling a first auxiliary component within a vehicle based on the modified first vehicle parameter, wherein at least one of a torque input and shearing input applied to a steering wheel is detected by a force sensor coupled to the steering wheel, wherein the modified first vehicle parameter is determined based on the force executed on the steering wheel. acquiring sensor data from a first sensor input region (210-1 - 210-4) associated with a first finger of one hand of a user and from a second sensor input region (210-5, 210-6) associated with a second finger of the other hand of the user; analyzing the sensor data to determine a first location of the first finger within the first sensor input region (210-1 - 210-4) and a second location of the second finger within the second sensor input region (210-5, 210-6); characterized by selecting a first vehicle parameter based on the first location of the first finger; determining a modified first vehicle parameter based on determining that the second finger moved to the second location within a threshold period of time subsequent to the first finger moving to the first location; and controlling a first auxiliary component within a vehicle based on the modified first vehicle parameter, wherein at least one of a torque input and shearing input applied to a steering wheel is detected by a force sensor coupled to the steering wheel, wherein the modified first vehicle parameter is determined based on the force executed on the steering wheel.
A method of forming a gradient index (GRIN) lens for propagating an electromagnetic wave, the method comprising: receiving, by a manufacturing device having one or more processors, a model comprising data specifying a plurality of layers, wherein at least one layer of the plurality of layers comprises an arrangement of one or more volume elements comprising a first dielectric material and a second dielectric material, wherein the at least one layer of the plurality of layers has a dielectric profile that is made up of a plurality of different effective dielectric constants of the volume elements in the layer, wherein a first one of the plurality of layers has a spoke pattern, and wherein a second one of the plurality of layers has a ring pattern; and generating, with the manufacturing device by an additive manufacturing process, the GRIN lens based on the model. receiving, by a manufacturing device having one or more processors, a model comprising data specifying a plurality of layers, wherein at least one layer of the plurality of layers comprises an arrangement of one or more volume elements comprising a first dielectric material and a second dielectric material, wherein the at least one layer of the plurality of layers has a dielectric profile that is made up of a plurality of different effective dielectric constants of the volume elements in the layer, wherein a first one of the plurality of layers has a spoke pattern, and wherein a second one of the plurality of layers has a ring pattern; and generating, with the manufacturing device by an additive manufacturing process, the GRIN lens based on the model.
A method of making a positive electrode , comprising: - forming a positive electrode slurry of particles using an electrode formulation, a diluent, and oxalic acid; - coating the positive electrode slurry on a collector; and - drying the coating on the collector to form the positive electrode ; wherein the electrode formulation comprises an electrode active material, a conductive carbon source, an organic polymeric binder, and a water soluble polymer, and wherein the diluent consists essentially of water, wherein the conductive carbon source functions as a conductivity enhancer, wherein the water soluble polymer functions as a viscosity enhancer, and wherein oxalic acid functions as a pH modifier and is added to an amount such that the pH of the positive electrode slurry is between 7 and 9. - forming a positive electrode slurry of particles using an electrode formulation, a diluent, and oxalic acid; - coating the positive electrode slurry on a collector; and - drying the coating on the collector to form the positive electrode ;
A method for operating a system for controlling access to an access-restricted area in a building or a compound, wherein the system comprises a transmitter and receiver unit for the radio communication with mobile electronic devices carried along by users , a storage unit , a processing unit and a code processing unit , and wherein the method comprises the steps of: receiving a first identifier (Ki) of a first mobile electronic device of a first user by means of the transmitter and receiver unit when the first mobile electronic device is located in a public area , from which the first user can request access to the access-restricted area ; storing the received first identifier (Ki) in the storage unit , wherein a first dataset (DSi) is created for the first identifier (Ki) and assigned to the first user present in the public area , wherein a plurality of datasets can be stored in the storage unit , and wherein each dataset is assigned to a user present in the public area ; storing a first password (Ci) in the first dataset (DSi) such that the first code word (Ci) is assigned to the first identifier (Ki); determining if the first identifier (Ki) is assigned to a user profile in a database by means of the processor unit in order to authenticate the first user as having access authorization in the event of such an assignment; acquiring a password (Cd) presented by the first user by means of the code processing unit when the first user requests access to the access-restricted area ; and determining if the acquired password (Cd) matches the first password (Ci) stored in the first dataset (DSi) of the storage unit by means of the processor unit , wherein the first user is recognized as an access-requesting user in the event of a match. receiving a first identifier (Ki) of a first mobile electronic device of a first user by means of the transmitter and receiver unit when the first mobile electronic device is located in a public area , from which the first user can request access to the access-restricted area ; storing the received first identifier (Ki) in the storage unit , wherein a first dataset (DSi) is created for the first identifier (Ki) and assigned to the first user present in the public area , wherein a plurality of datasets can be stored in the storage unit , and wherein each dataset is assigned to a user present in the public area ; storing a first password (Ci) in the first dataset (DSi) such that the first code word (Ci) is assigned to the first identifier (Ki); determining if the first identifier (Ki) is assigned to a user profile in a database by means of the processor unit in order to authenticate the first user as having access authorization in the event of such an assignment; acquiring a password (Cd) presented by the first user by means of the code processing unit when the first user requests access to the access-restricted area ; and determining if the acquired password (Cd) matches the first password (Ci) stored in the first dataset (DSi) of the storage unit by means of the processor unit , wherein the first user is recognized as an access-requesting user in the event of a match.
A legged mobile robot (MR) of a fleet of interacting autonomous legged mobile robots (MR), for sorting processed parts (P) of a workpiece (W), which has been processed by a workpiece processing machine (L), in particular a sheet workpiece processing machine in form of a laser cutting machine, with: - A control unit (DCU, CCU), which is configured for providing control instructions for controlling the mobile robot (MR), wherein a set of robot-specific control instructions is generated autonomously and locally on each of the mobile robot (MR) of the fleet of robots for the respective mobile robot (MR) for gripping processed parts (P) from a working table (WT) and for transporting the gripped processed parts (P) to a target destination in a cooperating manner; - A sensor system (S) with first sensors (S1) for coordinated navigation with other mobile robots (MR) of the fleet and with second sensors (S2) for gripping; - A network interface (NMI) to a network (NW) for communication with other mobile robots; (MR) and - A gripping and movement unit (G) for gripping at least one processed part (P) from the working table (WT) and for moving the mobile robot (MR) for sorting the gripped processed part (P) to a target destination. - A control unit (DCU, CCU), which is configured for providing control instructions for controlling the mobile robot (MR), wherein a set of robot-specific control instructions is generated autonomously and locally on each of the mobile robot (MR) of the fleet of robots for the respective mobile robot (MR) for gripping processed parts (P) from a working table (WT) and for transporting the gripped processed parts (P) to a target destination in a cooperating manner; - A sensor system (S) with first sensors (S1) for coordinated navigation with other mobile robots (MR) of the fleet and with second sensors (S2) for gripping; - A network interface (NMI) to a network (NW) for communication with other mobile robots; (MR) and - A gripping and movement unit (G) for gripping at least one processed part (P) from the working table (WT) and for moving the mobile robot (MR) for sorting the gripped processed part (P) to a target destination.
A method of generating reference data for circuit board inspection including: scanning a bare circuit board to obtain image information of the bare circuit board; generating a compensation matrix using pad coordinate information extracted from the image information and pad coordinate information prestored in design data; and generating, by applying the compensation matrix to the image information, a reference data including coordinate information of a distinctive object formed on the bare circuit board. scanning a bare circuit board to obtain image information of the bare circuit board; generating a compensation matrix using pad coordinate information extracted from the image information and pad coordinate information prestored in design data; and generating, by applying the compensation matrix to the image information, a reference data including coordinate information of a distinctive object formed on the bare circuit board.
A scanning electron microscope , comprising: a liner tube which transmits an electron beam; a scintillator having a through-hole into which the liner tube is inserted; a light guide which guides light generated by the scintillator; a conductive layer provided on a sensitive surface of the scintillator ; and a conductive member provided in the scintillator , wherein the shortest distance (L1) between the liner tube and the conductive member is shorter than the shortest distance (L2) between the liner tube and the conductive layer , means for applying a voltage to the conductive layer , for accelerating electrons thereto, so that the conductive layer and the conductive member have the same potential, characterised in that the conductive member is provided on an inner surface of the through-hole . a liner tube which transmits an electron beam; a scintillator having a through-hole into which the liner tube is inserted; a light guide which guides light generated by the scintillator; a conductive layer provided on a sensitive surface of the scintillator ; and a conductive member provided in the scintillator , wherein the shortest distance (L1) between the liner tube and the conductive member is shorter than the shortest distance (L2) between the liner tube and the conductive layer , means for applying a voltage to the conductive layer , for accelerating electrons thereto, so that the conductive layer and the conductive member have the same potential, characterised in that the conductive member is provided on an inner surface of the through-hole .
A wireless communication network comprising a plurality of radio transmitting devices in a frequency band that is divided into a plurality of channels, wherein, the transmitting devices have each a local frequency reference, and are arranged to process signals into a spread-spectrum radio signal by switching the frequency of a carrier among several hopping frequencies in a frequency band according to a hopping sequence and, the radio transmitting devices being arranged to determine the hopping sequence by incrementing repeatedly a channel of an initial hopping frequency according to a determined succession of increments, thereby obtaining a sequence of channels, each channel in the sequence defining an element of the hopping sequence, and transmit the spread-spectrum radio signal through a radio interface, and the radio transmitting devices are configured to transmit data frames including a preamble, a payload and error-correction or error-detection codes, characterized in that each frame comprises a plurality of frequency hops, wherein the preamble is repeated for each frequency hop, and wherein each replica of the preamble contains also a counter, or an element of information that allows a receiving gateway to identify each repetition, and wherein the header and payload are interleaved at spaced-apart offsets in the frame such that they fall into different hops, and coded for error correction. the transmitting devices have each a local frequency reference, and are arranged to process signals into a spread-spectrum radio signal by switching the frequency of a carrier among several hopping frequencies in a frequency band according to a hopping sequence and, the radio transmitting devices being arranged to determine the hopping sequence by incrementing repeatedly a channel of an initial hopping frequency according to a determined succession of increments, thereby obtaining a sequence of channels, each channel in the sequence defining an element of the hopping sequence, and transmit the spread-spectrum radio signal through a radio interface, and the radio transmitting devices are configured to transmit data frames including a preamble, a payload and error-correction or error-detection codes, characterized in that each frame comprises a plurality of frequency hops, wherein the preamble is repeated for each frequency hop, and wherein each replica of the preamble contains also a counter, or an element of information that allows a receiving gateway to identify each repetition, and wherein the header and payload are interleaved at spaced-apart offsets in the frame such that they fall into different hops, and coded for error correction.
A waveguide arrangement comprising: a cuboid-shaped waveguide coupled to a plurality of output waveguides ; and a cuboid-shaped input waveguide coupled to the cuboid-shaped waveguide , wherein a propagation direction of an electromagnetic wave guided through the cuboid-shaped input waveguide is perpendicular to propagation directions of electromagnetic waves, which are guided through the output waveguides ; wherein the waveguide arrangement is configured to split an electromagnetic wave provided into the cuboid-shaped input waveguide into a plurality of electromagnetic waves guided through the output waveguides , wherein a power ratio of the plurality of electromagnetic waves travelling through the output waveguides is defined by an angle, a, enclosed by a polarization of the wave guided by the cuboid-shaped input waveguide and a side surface of the cuboid-shaped waveguide on which any one of the output waveguides is arranged, characterized in that the cuboid-shaped input waveguide is rotatably coupled to the cuboid-shaped waveguide such that a power ratio between the electromagnetic waves provided or guided by the output waveguides is adjustable. a cuboid-shaped waveguide coupled to a plurality of output waveguides ; and a cuboid-shaped input waveguide coupled to the cuboid-shaped waveguide , wherein a propagation direction of an electromagnetic wave guided through the cuboid-shaped input waveguide is perpendicular to propagation directions of electromagnetic waves, which are guided through the output waveguides ; wherein the waveguide arrangement is configured to split an electromagnetic wave provided into the cuboid-shaped input waveguide into a plurality of electromagnetic waves guided through the output waveguides , wherein a power ratio of the plurality of electromagnetic waves travelling through the output waveguides is defined by an angle, a, enclosed by a polarization of the wave guided by the cuboid-shaped input waveguide and a side surface of the cuboid-shaped waveguide on which any one of the output waveguides is arranged, characterized in that the cuboid-shaped input waveguide is rotatably coupled to the cuboid-shaped waveguide such that a power ratio between the electromagnetic waves provided or guided by the output waveguides is adjustable.
A method for preparing a reduced coenzyme Q10 powder, wherein the method comprising the steps as follows: adding an oxidized coenzyme Q10 into an organic solvent, heating to 50 °C∼ 60°C of temperature, and adding a reductant for reaction; wherein the reductant is selected from one or more of hyposulphurous acid or salt thereof, ascorbic acid or salt thereof, carbodithioic acid or salt thereof, or reductase; the organic solvent is ketones, or hydrophobic alkanes; and removing the organic solvent after finishing the reaction to obtain a molten and oily reduced coenzyme Q10 liquid; and then heating the molten and oily reduced coenzyme Q10 liquid to 50°Cof temperature, spraying by a centrifugal sprayer, to form particles in cold air after spraying, to obtain a white reduced coenzyme Q10 powder. adding an oxidized coenzyme Q10 into an organic solvent, heating to 50 °C∼ 60°C of temperature, and adding a reductant for reaction; wherein the reductant is selected from one or more of hyposulphurous acid or salt thereof, ascorbic acid or salt thereof, carbodithioic acid or salt thereof, or reductase; the organic solvent is ketones, or hydrophobic alkanes; and removing the organic solvent after finishing the reaction to obtain a molten and oily reduced coenzyme Q10 liquid; and then heating the molten and oily reduced coenzyme Q10 liquid to 50°Cof temperature, spraying by a centrifugal sprayer, to form particles in cold air after spraying, to obtain a white reduced coenzyme Q10 powder.
A composition comprising or consisting of two polypeptides, wherein each polypeptide comprises a first set of six complementarity determining regions (CDRs) comprised in a first scFv fragment and configured to bind a first antigen; and a second set of six CDRs comprised in a second scFv fragment and configured to bind a second antigen; wherein said two polypeptides are (a) (i) a polypeptide binding to HBV small or large surface antigen and CD3; and (ii) a polypeptide binding to HBV small or large surface antigen and CD28; or (b) (i) a polypeptide binding to HBV small or large surface antigen and CD16; and (ii) a polypeptide binding to HBV small or large surface antigen and CD56 and wherein no further CDRs are present in said polypeptides. a first set of six complementarity determining regions (CDRs) comprised in a first scFv fragment and configured to bind a first antigen; and a second set of six CDRs comprised in a second scFv fragment and configured to bind a second antigen; (a) (i) a polypeptide binding to HBV small or large surface antigen and CD3; and (ii) a polypeptide binding to HBV small or large surface antigen and CD28; or (i) a polypeptide binding to HBV small or large surface antigen and CD3; and (ii) a polypeptide binding to HBV small or large surface antigen and CD28; (b) (i) a polypeptide binding to HBV small or large surface antigen and CD16; and (ii) a polypeptide binding to HBV small or large surface antigen and CD56 and wherein no further CDRs are present in said polypeptides. (i) a polypeptide binding to HBV small or large surface antigen and CD16; and (ii) a polypeptide binding to HBV small or large surface antigen and CD56 and wherein no further CDRs are present in said polypeptides.
A separation material comprising a hydroxyl-group containing base matrix, to the surfaces of which polymer chains are grafted by covalent bonding, characterized in that the polymer chains comprise amino acid end groups - N(Y)-R3 with a. Y being independently from each other H or CH3, preferably H, and b. R3 being -CHCOOMR4 with R4 being C1 to C4 alkyl or C1 to C4 perfluoroalkyl and M being H, Na, K, or NH 4 . a. Y being independently from each other H or CH3, preferably H, and b. R3 being -CHCOOMR4