mhurhangee/ep-ind-claims huggingface dataset:
A core drill bit having an axis, the drill bit comprising: a barrel; a cutting member detachably fixed to the barrel, the barrel being arranged to engage a drill shaft for driving the drill bit around the axis, the barrel and the cutting member being adjacently located on the axis, and an aperture centered on the axis, the aperture passing completely through both the cutting member and barrel; wherein the cutting member has a cutting face, and a backing face located adjacent the barrel, the faces being spaced apart along the axis, and the cutting face comprising a plurality of cutting teeth or elements (32, 34), between which passage ways are defined; wherein the cutting member has cylindrical inner and outer surfaces centered on the axis, the inner surface surrounding the aperture passing through the cutting member; wherein the cutting member is slotted to form a plurality of passage ways, which slots cut through the inner and outer surfaces and the cutting face; wherein the barrel has cylindrical inner and outer barrel surfaces centered on the axis, the inner barrel surface surrounding the aperture passing through the barrel; wherein the cylindrical aperture passing through the barrel is continuous with the cylindrical aperture passing through the cutting member; wherein the cutting member and barrel are mechanically fixed together by a pair of engaged cooperating elements, each of the pair of elements being located on one of the barrel and cutting member respectively; and wherein the cooperating elements comprise a spigot located in a corresponding recess, the spigot and recess being located on one of the cutting member and barrel respectively. a barrel; a cutting member detachably fixed to the barrel, the barrel being arranged to engage a drill shaft for driving the drill bit around the axis, the barrel and the cutting member being adjacently located on the axis, and an aperture centered on the axis, the aperture passing completely through both the cutting member and barrel;
A method for performing layer processing of a neural network, the method comprising: storing elements of matrices in a memory of a graphics processor; and triggering execution of a compute kernel on the graphics processor, wherein the compute kernel performs, on the elements of the matrices, a convolution layer operation followed by a bias layer operation on output of the convolution layer operation, followed by a rectified linear unit layer operation on output of the bias layer operation, the outputs being forwarded between the layer operations, wherein the operations are executed on a plurality of execution units of the graphics processor, wherein the execution units are partitioned into a plurality of groups ((720 -720); (720 -720); (720 -720); (720 -720)), wherein execution units allocated to a group of the plurality of groups perform operations of the same layer. storing elements of matrices in a memory of a graphics processor; and triggering execution of a compute kernel on the graphics processor, wherein the compute kernel performs, on the elements of the matrices, a convolution layer operation followed by a bias layer operation on output of the convolution layer operation, followed by a rectified linear unit layer operation on output of the bias layer operation, the outputs being forwarded between the layer operations, wherein the operations are executed on a plurality of execution units of the graphics processor, wherein the execution units are partitioned into a plurality of groups ((720 -720); (720 -720); (720 -720); (720 -720)), wherein execution units allocated to a group of the plurality of groups perform operations of the same layer.
Arrangement for fastening at a car body ceiling of an open-plan vehicle for passenger transport, in particular of a railway vehicle, the arrangement comprising: - A ceiling lining; - a load-bearing structure (3a, 3b) which is part of the car body ceiling or is fastened to the car body ceiling and from which the ceiling lining is suspended; the ceiling lining having a) a duct module forming a supply air duct, extending in longitudinal direction of the car body, for a supply of air into the inside of the car body; b) a slab-shaped covering element covering the supply air duct from below and, at its underside, forming a surface of the ceiling lining visible from the passenger compartment, the covering element being detachable from the duct module, characterised in that the duct module and/or the covering element is/are made of at least one moulded part with fibre-reinforced and foamed thermosets and the covering element has a cover layer made of composite materials laminated under high pressure. - A ceiling lining; - a load-bearing structure (3a, 3b) which is part of the car body ceiling or is fastened to the car body ceiling and from which the ceiling lining is suspended; a) a duct module forming a supply air duct, extending in longitudinal direction of the car body, for a supply of air into the inside of the car body; b) a slab-shaped covering element covering the supply air duct from below and, at its underside, forming a surface of the ceiling lining visible from the passenger compartment, the covering element being detachable from the duct module,
An image-forming apparatus, comprising: a photosensitive member; a scanning unit, configured to perform laser scanning on the photosensitive member at a non-constant linear speed along a main scanning direction to form an electrostatic latent image; and a controller, configured to make a scanning period T1 corresponding to a first pixel at a central region of the photosensitive member to be not equal to a scanning period T2 corresponding to a second pixel at a non-central region of the photosensitive member, wherein: the first pixel and the second pixel are each configured with a light-emitting time period and a non-light-emitting time period; characterized in that the light-emitting time period satisfies that a light-emitting time length of the light-emitting time period of the first pixel is same as a light-emitting time length of the light-emitting time period of the second pixel; and for printing a fixed page, a light-emitting power of the scanning unit is a preset fixed value. a photosensitive member; a scanning unit, configured to perform laser scanning on the photosensitive member at a non-constant linear speed along a main scanning direction to form an electrostatic latent image; and a controller, configured to make a scanning period T1 corresponding to a first pixel at a central region of the photosensitive member to be not equal to a scanning period T2 corresponding to a second pixel at a non-central region of the photosensitive member, wherein: the first pixel and the second pixel are each configured with a light-emitting time period and a non-light-emitting time period; characterized in that the light-emitting time period satisfies that a light-emitting time length of the light-emitting time period of the first pixel is same as a light-emitting time length of the light-emitting time period of the second pixel; and for printing a fixed page, a light-emitting power of the scanning unit is a preset fixed value. the first pixel and the second pixel are each configured with a light-emitting time period and a non-light-emitting time period; characterized in that the light-emitting time period satisfies that a light-emitting time length of the light-emitting time period of the first pixel is same as a light-emitting time length of the light-emitting time period of the second pixel; and for printing a fixed page, a light-emitting power of the scanning unit is a preset fixed value.
A data control system comprising: a CPU (1, 80) which controls data transfer from a first device to a second device in a kernel mode; and a main memory (3, 90) which stores data to be transferred from the first device to the second device, wherein the CPU (1, 80) comprises: a first device control means which controls the first device; a second device control means which controls the second device; and a data transfer control means which makes a read instruction which instructs the first device control means to store data read from the first device in the main memory, and makes a write instruction which instructs the second device control means to write the data stored in the main memory (3, 90), in the second device, wherein the data transfer control unit allocates memory space in the main memory (3, 90), wherein the first device control unit is configured to cause the first device to write data into the memory space using direct memory access, and wherein the second device control unit is configured to cause the second device to read data written by the first device from the memory space using direct memory access. a CPU (1, 80) which controls data transfer from a first device to a second device in a kernel mode; and a main memory (3, 90) which stores data to be transferred from the first device to the second device, wherein the CPU (1, 80) comprises: a first device control means which controls the first device; a second device control means which controls the second device; and a data transfer control means which makes a read instruction which instructs the first device control means to store data read from the first device in the main memory, and makes a write instruction which instructs the second device control means to write the data stored in the main memory (3, 90), in the second device, wherein the data transfer control unit allocates memory space in the main memory (3, 90), wherein the first device control unit is configured to cause the first device to write data into the memory space using direct memory access, and wherein the second device control unit is configured to cause the second device to read data written by the first device from the memory space using direct memory access. a first device control means which controls the first device; a second device control means which controls the second device; and a data transfer control means which makes a read instruction which instructs the first device control means to store data read from the first device in the main memory, and makes a write instruction which instructs the second device control means to write the data stored in the main memory (3, 90), in the second device, wherein the data transfer control unit allocates memory space in the main memory (3, 90), wherein the first device control unit is configured to cause the first device to write data into the memory space using direct memory access, and wherein the second device control unit is configured to cause the second device to read data written by the first device from the memory space using direct memory access.
Mould for vulcanizing tyres, comprising several segments which are circumferentially adjacent and able to move radially between a mould-closed and a mould-open position, each segment comprising an insert made as one piece or comprising several individual elements, the insert being mounted detachably with respect to a support, the insert comprising a radially internal part intended for moulding and a radially external part for contact with the support, characterized in that the insert is held in position radially by being fixed to the support by means of at least one metallic filamentary element inserted between the insert and the support.
Method of determining the state of health of the cells (Ci) of a battery comprising a plurality of series- coupled cells (Ci), this method comprising the steps of: a) during a battery discharge or charge phase, measuring the voltage Ui across each cell (Ci); b) when a first cell (Ci lim) reaches a predefined end-of-discharge or end-of-charge condition, interrupting the battery discharge or charge, and storing, for each cell (Ci), the voltage Ui of the cell at the end of the battery discharge or charge phase; c) determining a value QCi lim representative of the capacitance of the first cell; and d) determining, for each other battery cell, from the value QCi lim determined at step c) and the end-of-discharge or end-of-charge voltages Ui stored at step b), by using a predetermined mathematical function f, a value QCi representative of the cell capacitance. a) during a battery discharge or charge phase, measuring the voltage Ui across each cell (Ci); b) when a first cell (Ci lim) reaches a predefined end-of-discharge or end-of-charge condition, interrupting the battery discharge or charge, and storing, for each cell (Ci), the voltage Ui of the cell at the end of the battery discharge or charge phase; c) determining a value QCi lim representative of the capacitance of the first cell; and d) determining, for each other battery cell, from the value QCi lim determined at step c) and the end-of-discharge or end-of-charge voltages Ui stored at step b), by using a predetermined mathematical function f, a value QCi representative of the cell capacitance.
A marine engine exhaust gas purification system for purifying exhaust gas from a marine engine through reduction by a reductor of a ship including a solvent refiner, the marine engine, and the reductor, the purification system comprising: a powder storage container that stores reducer powder for the reduction; a solvent feed line that supplies, into the powder storage container, a solvent refined by the solvent refiner, the powder storage container allowing production of a high concentration solution by dissolving the reducer powder in the solvent supplied through the solvent feed line, the powder storage container connecting, from an upstream side, a measuring container that measures a concentration of the high concentration solution, and a regulating container that regulates the concentration of the high concentration solution so as to produce a regulated solution from the high concentration solution, a first solution feed line that supplies the high concentration solution produced by the powder storage container to the measuring container, a second solution feed line that supplies the high concentration solution of the measuring container to the regulating container, a regulated solution feed line (31c, 31d) that supplies the regulated solution of the regulating container to the reductor, and the reductor reducing the exhaust gas by supplying the regulated solution to the exhaust gas, the regulated solution being supplied through the regulated solution feed line (31c, 31d). a powder storage container that stores reducer powder for the reduction; a solvent feed line that supplies, into the powder storage container, a solvent refined by the solvent refiner, the powder storage container allowing production of a high concentration solution by dissolving the reducer powder in the solvent supplied through the solvent feed line, the powder storage container connecting, from an upstream side, a measuring container that measures a concentration of the high concentration solution, and a regulating container that regulates the concentration of the high concentration solution so as to produce a regulated solution from the high concentration solution, a first solution feed line that supplies the high concentration solution produced by the powder storage container to the measuring container, a second solution feed line that supplies the high concentration solution of the measuring container to the regulating container, a regulated solution feed line (31c, 31d) that supplies the regulated solution of the regulating container to the reductor, and the reductor reducing the exhaust gas by supplying the regulated solution to the exhaust gas, the regulated solution being supplied through the regulated solution feed line (31c, 31d).
A method of wireless communication of a user equipment, UE, (408; 602) comprising: transmitting, to a serving network entity, a measurement report of a target network entity, the measurement report including a beam identifier that is a logical mapping to a time unit, the time unit being one of a system frame number - SFN, a subframe index - SFI, a slot, a mini-slot, or a symbol; determining a duration for reference signal measurements of the target network entity (402; 406) based on information in the measurement report; beamforming a first subset of radio frequency chains of a set of radio frequency chains in one or more directions for the reference signal measurements of the target network entity (402; 406) during the duration; performing the reference signal measurements of the target network entity using the first subset of beamformed radio frequency chains; and communicating data with the serving network entity (406; 402) using a second subset of radio frequency chains of the set of radio frequency chains during the duration. transmitting, to a serving network entity, a measurement report of a target network entity, the measurement report including a beam identifier that is a logical mapping to a time unit, the time unit being one of a system frame number - SFN, a subframe index - SFI, a slot, a mini-slot, or a symbol; determining a duration for reference signal measurements of the target network entity (402; 406) based on information in the measurement report; beamforming a first subset of radio frequency chains of a set of radio frequency chains in one or more directions for the reference signal measurements of the target network entity (402; 406) during the duration; performing the reference signal measurements of the target network entity using the first subset of beamformed radio frequency chains; and communicating data with the serving network entity (406; 402) using a second subset of radio frequency chains of the set of radio frequency chains during the duration.
A multi-terminal positioning method, wherein the method comprises: establishing (101, 401), by a primary terminal after receiving a collaboration request activation signal triggered by a user, connections to secondary terminals in a wireless connection manner; calculating and displaying (102, 402), by the primary terminal according to received device configuration parameters of the secondary terminals and the number of secondary terminals, at least one arrangement shape of all terminals and at least one demarcated gesture that matches each arrangement shape, and recording one arrangement shape selected by the user and one demarcated gesture that matches the arrangement shape; triggering sensors of the terminals using the demarcated gesture; receiving (103, 403), by the primary terminal, sensor trigger information sent by at least one secondary terminal, wherein the sensor trigger information comprises a trigger time generated by the at least one secondary terminal; and calculating (104, 407), by the primary terminal according to the recorded arrangement shape and demarcated gesture, and the sensor trigger information, an arrangement sequence of all terminals and relative positions between the terminals by calculating, by the primary terminal, a trigger time difference between sensor trigger information of successively triggered sensors due to the use of the demarcated gesture. establishing (101, 401), by a primary terminal after receiving a collaboration request activation signal triggered by a user, connections to secondary terminals in a wireless connection manner; calculating and displaying (102, 402), by the primary terminal according to received device configuration parameters of the secondary terminals and the number of secondary terminals, at least one arrangement shape of all terminals and at least one demarcated gesture that matches each arrangement shape, and recording one arrangement shape selected by the user and one demarcated gesture that matches the arrangement shape; triggering sensors of the terminals using the demarcated gesture; receiving (103, 403), by the primary terminal, sensor trigger information sent by at least one secondary terminal, wherein the sensor trigger information comprises a trigger time generated by the at least one secondary terminal; and calculating (104, 407), by the primary terminal according to the recorded arrangement shape and demarcated gesture, and the sensor trigger information, an arrangement sequence of all terminals and relative positions between the terminals by calculating, by the primary terminal, a trigger time difference between sensor trigger information of successively triggered sensors due to the use of the demarcated gesture.
A method of transferring an article in a conveyor system of a packaging plant from a first drivable conveyor means to a second drivable conveyor means, said transfer of the article taking place during a synchronous phase in which said first and said second conveyor means have the same common speed as one another at any time, wherein, during the synchronous phase, the common speed increases at least sectionwise and/or decreases at least sectionwise, characterized in that, after the end of the synchronous phase, a conveyor means (5, 8) is temporarily operated with an excess speed in comparison with the speed level (v2') at the end of the synchronous phase.
Helical conveyor centrifuge, in particular a solid-bowl or sieve-bowl centrifuge, comprising: a) a rotatable drum, b) a rotatable screw disposed within the drum, c) a centrifuge drive for rotating the drum and the screw, which is designed such that a differential speed between drum and screw can be set, d) wherein the centrifuge drive has the following: i. a first motor and a second motor, and ii. a gearing arrangement, which is disposed between the motors (4, 5) and also between the drum and the screw and which has a gearing, arranged downstream of the motors (4, 5), having a first, a second and at least a third gear stage (7, 8, 9), e) wherein, at a total of at least four shafts, torques are introduced into the first gear stage and the second gear stage or are taken off from these two gear stages, and f) wherein the first and second gear stages (7, 8) are driven at a total of at least three shafts, characterized in that g) the first motor firstly feeds a torque into the housing and secondly, at two shafts, feeds a torque into the first gear stage. a) a rotatable drum, b) a rotatable screw disposed within the drum, c) a centrifuge drive for rotating the drum and the screw, which is designed such that a differential speed between drum and screw can be set, d) wherein the centrifuge drive has the following: i. a first motor and a second motor, and ii. a gearing arrangement, which is disposed between the motors (4, 5) and also between the drum and the screw and which has a gearing, arranged downstream of the motors (4, 5), having a first, a second and at least a third gear stage (7, 8, 9), i. a first motor and a second motor, and ii. a gearing arrangement, which is disposed between the motors (4, 5) and also between the drum and the screw and which has a gearing, arranged downstream of the motors (4, 5), having a first, a second and at least a third gear stage (7, 8, 9), e) wherein, at a total of at least four shafts, torques are introduced into the first gear stage and the second gear stage or are taken off from these two gear stages, and f) wherein the first and second gear stages (7, 8) are driven at a total of at least three shafts, characterized in that g) the first motor firstly feeds a torque into the housing and secondly, at two shafts, feeds a torque into the first gear stage.
A method of identifying the risk of a human for developing a breast cancer phenotype, the method comprising: detecting, in a biological sample from the human, the single nucleotide polymorphism REFSNP_ID 889312, either directly or indirectly through a closely linked locus which is 100 kb or less from the polymorphism; and, correlating the allele at said polymorphism or locus to the risk of developing the phenotype. detecting, in a biological sample from the human, the single nucleotide polymorphism REFSNP_ID 889312, either directly or indirectly through a closely linked locus which is 100 kb or less from the polymorphism; and, correlating the allele at said polymorphism or locus to the risk of developing the phenotype.