mhurhangee/ep-ind-claims huggingface dataset:
A wireless power transfer, WPT, system, comprising: an electromagnetic induction charger operable to emit electromagnetic radiation into an environment of the charger; motion sensor equipment operable to generate an output indicating whether or not a moving object is present in the environment; and a controller configured to: receive the output from the motion sensor equipment; determine whether the received output indicates that a moving object is present in a predefined region of the environment; and in response to a positive determination, prevent the charger from emitting the electromagnetic radiation, characterized in that: the predefined region extends in a given direction from the charger to an outer boundary that is set at a predefined distance from the charger, wherein the controller is configured to modify the predefined distance based on an intensity of the electromagnetic radiation emitted by the charger and/or based on a power output of the charger. an electromagnetic induction charger operable to emit electromagnetic radiation into an environment of the charger; motion sensor equipment operable to generate an output indicating whether or not a moving object is present in the environment; and a controller configured to: receive the output from the motion sensor equipment; determine whether the received output indicates that a moving object is present in a predefined region of the environment; and in response to a positive determination, prevent the charger from emitting the electromagnetic radiation, receive the output from the motion sensor equipment; determine whether the received output indicates that a moving object is present in a predefined region of the environment; and in response to a positive determination, prevent the charger from emitting the electromagnetic radiation, characterized in that: the predefined region extends in a given direction from the charger to an outer boundary that is set at a predefined distance from the charger, wherein the controller is configured to modify the predefined distance based on an intensity of the electromagnetic radiation emitted by the charger and/or based on a power output of the charger. the predefined region extends in a given direction from the charger to an outer boundary that is set at a predefined distance from the charger, wherein the controller is configured to modify the predefined distance based on an intensity of the electromagnetic radiation emitted by the charger and/or based on a power output of the charger.
A method for bonding semiconductor structures comprising: positioning a first surface of a first semiconductor structure directly opposite to and at a first distance from a first surface of a second semiconductor structure within a fixture tool of an aligner equipment; aligning said first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) parallel to each other to submicron alignment accuracy; bringing said aligned first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) at a second distance from each other wherein said second distance is less than said first distance; bringing said aligned first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) into atomic contact at a single point and forming a bond interface by applying pressure to said single point via a pressurized gas flowing through a port terminating at said single point; propagating said bond interface radially across a portion of said first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) by controlling said pressurized gas; reducing the pressure of the pressurized gas and bringing said first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) into full contact with each other; clamping said first and second semiconductor structures (102, 104) together within said fixture tool; and bonding said clamped first and second semiconductor structures (102, 104). positioning a first surface of a first semiconductor structure directly opposite to and at a first distance from a first surface of a second semiconductor structure within a fixture tool of an aligner equipment; aligning said first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) parallel to each other to submicron alignment accuracy; bringing said aligned first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) at a second distance from each other wherein said second distance is less than said first distance; bringing said aligned first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) into atomic contact at a single point and forming a bond interface by applying pressure to said single point via a pressurized gas flowing through a port terminating at said single point; propagating said bond interface radially across a portion of said first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) by controlling said pressurized gas; reducing the pressure of the pressurized gas and bringing said first surfaces (102a, 104a) of said first and second semiconductor structures (102, 104) into full contact with each other; clamping said first and second semiconductor structures (102, 104) together within said fixture tool; and bonding said clamped first and second semiconductor structures (102, 104).
Method for operating a cooking appliance comprising a cooking chamber for receiving a food to be cooked, an operating device for setting an operating mode of the cooking appliance, a heating device for heating the cooking chamber, and a control device for controlling at least the heating device in such a way that after setting the operating mode, a heating programme is carried out, wherein after setting an operating mode of the cooking appliance by means of a monitoring device, a loading state of the cooking chamber is determined, wherein determining the loading state comprises at least distinguishing whether or not the food to be cooked is in the cooking chamber, and depending on the determined loading state, a heating programme is selected and carried out from a plurality of stored heating programmes, characterised in that depending on an opening and subsequent closing of a cooking chamber door, the loading state of the cooking chamber is again determined and, if necessary, the heating programme is changed when the loading state is changed. wherein after setting an operating mode of the cooking appliance by means of a monitoring device, a loading state of the cooking chamber is determined, wherein determining the loading state comprises at least distinguishing whether or not the food to be cooked is in the cooking chamber, and depending on the determined loading state, a heating programme is selected and carried out from a plurality of stored heating programmes, characterised in that depending on an opening and subsequent closing of a cooking chamber door, the loading state of the cooking chamber is again determined and, if necessary, the heating programme is changed when the loading state is changed.
An anti-VAP-1 antibody or a VAP-1 binding fragment thereof, characterized in that it is fully human and it comprises i) three heavy chain polypeptide CDRs depicted in SEQ ID NOs: 4, 9, and 14, respectively, and three light chain polypeptide CDRs depicted in SEQ ID NOs: 27, 32, and 37, respectively; wherein the anti-VAP-1 antibody or a VAP-1 binding fragment thereof has a K D lower than that of a chimeric anti-VAP-1 antibody designated as BTT-1002; K D being estimated with a Biacore surface plasmon resonance assay. i) three heavy chain polypeptide CDRs depicted in SEQ ID NOs: 4, 9, and 14, respectively, and three light chain polypeptide CDRs depicted in SEQ ID NOs: 27, 32, and 37, respectively;
A porous film comprising a polymer component having a PVDF resin as a main component thereof, wherein the degree of crystallization of the PVDF resin in the film is 50% or more but not more than 90%, and the product of the degree of crystallization of the PVDF resin in the film and the specific surface area of the film is 300 (% • m 2 /g) or more but not more than 1000 (% • m 2 /g), wherein the degree of crystallization and the specific surface area is determined as described in the description, characterized in that a polyethylene glycol having a weight average molecular weight of 20,000 or more but not more than 300,000 is contained in the porous film as the polymer component at 0.01 parts by weight or more but not more than 3 parts by weight based on 100 parts by weight of the PVDF resin.
Weaving machine with a device for monitoring a weft thread comprising a broken-weft thread detector for providing a signal when an inserted weft thread exceeds its length by a predetermined amount and an air guide channel located upstream of the broken-weft thread detector, wherein the broken-weft thread detector is mounted on a sley of the weaving machine, characterized in that the air guide channel is arranged stationary on the weaving machine.
Vane-type camshaft adjuster having a stator and a rotor, which latter can be connected to a camshaft and comprises a plurality of radially protruding blades inserted in blade grooves (4, 14, 25), a blade groove (4, 14, 25) having groove side faces (10, 12, 15, 16, 26, 27), a groove bottom (13, 17, 37) and rounded transition regions between the groove side faces (10, 12, 15, 16, 26, 27) and the groove bottom (13, 17, 37), which transition regions undercut the groove side faces (10, 12, 15, 16, 26, 27), wherein the middle region of the groove bottom (13, 17, 37) is flatly configured and a spring rests there, characterized in that the rounded transition regions are configured, at least in part, as circular arc segments (18, 19, 33, 34) which undercut the groove bottom (13, 17, 35).
A method for sorting data in parallel on a computing device comprising: defining, for the computing device, one or more grids, each grid including a plurality of processor groups, each processor group including a set of parallel processors associated with a shared memory (680, 685); loading, by each of the processor groups according to a slab load kernel, data elements into a slab (610, 612, 614, 616) associated with a corresponding one of the processor groups the associated slab having a set of registers, the data elements being loaded in a transposed order, wherein each register is associated with at least one parallel processor in the group; for each of the parallel processors in the group, sorting, in parallel, the data elements loaded in the registers of the associated slab in descending order; for each of the parallel processors, merging the sorted data elements with the sorted data elements of other processors in the group; wherein merging the sorted data elements with the sorted data elements of other processors in the group includes merging a predefined number of slabs associated with the group in parallel; and storing, by the parallel processors for each of the processor groups of each grid, the merged and sorted data elements. defining, for the computing device, one or more grids, each grid including a plurality of processor groups, each processor group including a set of parallel processors associated with a shared memory (680, 685); loading, by each of the processor groups according to a slab load kernel, data elements into a slab (610, 612, 614, 616) associated with a corresponding one of the processor groups the associated slab having a set of registers, the data elements being loaded in a transposed order, wherein each register is associated with at least one parallel processor in the group; for each of the parallel processors in the group, sorting, in parallel, the data elements loaded in the registers of the associated slab in descending order; for each of the parallel processors, merging the sorted data elements with the sorted data elements of other processors in the group; wherein merging the sorted data elements with the sorted data elements of other processors in the group includes merging a predefined number of slabs associated with the group in parallel; and storing, by the parallel processors for each of the processor groups of each grid, the merged and sorted data elements.
A gear cutting machine for providing annular workpieces with gear teeth over the entire circumference of the annular workpiece or over a partial area or a partial segment of the circumference of the annular workpiece, with a machine column which is movable in the direction of a y axis and which may be fixed, and with a milling head which is supported at the machine column and may be fixed and is movable in the direction of a z axis, relative to which a centre axis of a machining table extends in parallel, about which the machining table is rotatably supported on which a workpiece to be machined may be fixed, characterized in that the milling head comprises a milling head block with a recess within which a milling drive shaft for driving the milling tool is arranged which is connected with a torque motor and may be driven by it, wherein the milling head block comprises at least one rear bearing seat and one front bearing seat as well as a first bearing and a second bearing, wherein the first bearing is arranged in the rear bearing seat and the second bearing is arranged in the front bearing seat, and wherein the milling drive shaft is rotatably supported in the first bearing and in the second bearing.
A protease variant, comprising a substitution at position 173 of SEQ ID NO: 3, wherein the variant has protease activity and has a sequence identity to SEQ ID NO: 3 of at least 75% and less than 100%, wherein the amino acid at the position corresponding to position 173 of SEQ ID NO: 3 is Pro, and wherein the variant has an improved detergent stability compared to the protease of SEQ ID NO: 3.
An anchoring system for a child safety seat comprising - a first coupling device adapted to engage with a harness of the child safety seat, - a second coupling device adapted to engage with a safety belt of a vehicle, - an anchoring means (80, 85) adapted to anchor the first coupling device and the second coupling device, and - a storage system adapted to store at least one of the first coupling device or the second coupling device,wherein the first coupling device is configured to be placed in a respective active position and in a respective inactive position, wherein in the active position the first coupling device is anchored by the anchoring means (80, 85) and placed in a position for engaging with the harness of the child safety seat, and wherein in the inactive position the first coupling device is stored in the storage system; wherein the second coupling device is configured to be placed in a respective active position and in a respective inactive position, wherein in the active position the second coupling device is anchored by the anchoring means (80, 85) and placed in a position for engaging with the safety belt of the vehicle, and wherein in the inactive position the second coupling device is stored in the storage system; wherein the anchoring system is configured to be installed in a seating portion of the child safety seat, wherein the anchoring system further comprises at least one lid adapted to cover the storage system, wherein the first coupling device or the second coupling device is locked in the active position when the at least one lid of the storage system is closed. - a first coupling device adapted to engage with a harness of the child safety seat, - a second coupling device adapted to engage with a safety belt of a vehicle, - an anchoring means (80, 85) adapted to anchor the first coupling device and the second coupling device, and - a storage system adapted to store at least one of the first coupling device or the second coupling device,wherein the first coupling device is configured to be placed in a respective active position and in a respective inactive position, wherein in the active position the first coupling device is anchored by the anchoring means (80, 85) and placed in a position for engaging with the harness of the child safety seat, and wherein in the inactive position the first coupling device is stored in the storage system;
A controller for an internal combustion engine that includes a port injection valve configured to inject fuel into an intake passage and an ignition device configured to cause spark discharge to occur in a combustion chamber, the controller comprising processing circuitry, wherein the processing circuitry is configured to execute: a selecting process that selects one of a multi-injection process or a single injection process, an injection amount requested in one combustion cycle being a request injection amount, the multi-injection process including executing an intake synchronous injection and an intake asynchronous injection to inject fuel of the request injection amount, the single injection process including executing the intake asynchronous injection to inject fuel of the request injection amount, in the intake synchronous injection, the fuel being injected in synchronization with a period in which an intake valve is open, and in the intake asynchronous injection, the fuel being injected at timing advanced from timing of executing the intake synchronous injection so that the fuel injected from the port injection valve reaches the intake valve before the intake valve opens; an injecting process that operates the port injection valve to execute one of the multi-injection process or the single injection process selected by the selecting process; and an ignition process that operates the ignition device, wherein the ignition process includes a switching process that changes an ignition timing to a retarded side value in accordance with switching from execution of the multi-injection process to execution of the single injection process. a selecting process that selects one of a multi-injection process or a single injection process, an injection amount requested in one combustion cycle being a request injection amount, the multi-injection process including executing an intake synchronous injection and an intake asynchronous injection to inject fuel of the request injection amount, the single injection process including executing the intake asynchronous injection to inject fuel of the request injection amount, in the intake synchronous injection, the fuel being injected in synchronization with a period in which an intake valve is open, and in the intake asynchronous injection, the fuel being injected at timing advanced from timing of executing the intake synchronous injection so that the fuel injected from the port injection valve reaches the intake valve before the intake valve opens; an injecting process that operates the port injection valve to execute one of the multi-injection process or the single injection process selected by the selecting process; and an ignition process that operates the ignition device, wherein the ignition process includes a switching process that changes an ignition timing to a retarded side value in accordance with switching from execution of the multi-injection process to execution of the single injection process.
A method of producing a composite preform having a preform profile of variable profile height or width, the method comprising the steps of: providing a plurality of first fibre layers arranged upon or overlapping one another substantially parallel to a primary plane; inserting or introducing at least one second fibre layer via a guide between two of the plurality of first fibre layers at an edge region of the preform profile, whereby the second fibre layer extends essentially parallel to the first fibre layers; and positioning the edge region of the preform profile, and thereby respective edge regions of the first fibre layers, out of the primary plane to set or determine a dimension of the preform profile in the primary plane. providing a plurality of first fibre layers arranged upon or overlapping one another substantially parallel to a primary plane; inserting or introducing at least one second fibre layer via a guide between two of the plurality of first fibre layers at an edge region of the preform profile, whereby the second fibre layer extends essentially parallel to the first fibre layers; and positioning the edge region of the preform profile, and thereby respective edge regions of the first fibre layers, out of the primary plane to set or determine a dimension of the preform profile in the primary plane.
A method for preparing a 1-(4-(4-(3,4-dichloro-2-fluorophenylamino)-7-methoxyquinazolin-6-yloxy)piperdin-1-yl)-prop-2-en-1-one hydrochloride of formula, which comprises the steps of: subjecting a compound of formula (VIII) to a reaction with a halogenating agent in the presence of an organic base, followed by a reaction with a compound of formula, to produce a compound of formula; subjecting the compound of formula to a reaction with an ammonia solution in a polar protic solvent to produce a compound of formula; subjecting the compound of formula to a reaction with a compound of formula in an inert polar aprotic solvent in the presence of a base to produce a compound of formula; subjecting the compound of formula to a reaction with hydrochloric acid in an inert solvent to produce a compound of formula; subjecting the compound of formula to an acrylation reaction with (wherein X is halogen) in the presence of a base to produce a compound of formula; and subjecting the compound of formula to a reaction with hydrochloric acid to produce the compound of formula: subjecting a compound of formula (VIII) to a reaction with a halogenating agent in the presence of an organic base, followed by a reaction with a compound of formula, to produce a compound of formula; subjecting the compound of formula to a reaction with an ammonia solution in a polar protic solvent to produce a compound of formula; subjecting the compound of formula to a reaction with a compound of formula in an inert polar aprotic solvent in the presence of a base to produce a compound of formula; subjecting the compound of formula to a reaction with hydrochloric acid in an inert solvent to produce a compound of formula; subjecting the compound of formula to an acrylation reaction with (wherein X is halogen) in the presence of a base to produce a compound of formula; and subjecting the compound of formula to a reaction with hydrochloric acid to produce the compound of formula: