mhurhangee/ep-ind-claims huggingface dataset:
Data processing method for use in the field of radiation therapy and for determining a relative position between the position of a bony structure and a reference position at a monitoring time after an alignment, the relative position being referred to as monitoring bone position, wherein an anatomical structure of a patient includes the bony structure and a treatment body part to be treated by at least one treatment beam of a treatment device, the reference position having a defined relative position with respect to an actual arrangement of at least one position of the at least one treatment beam; the data processing method being performed by a computer and comprising the following steps performed by the computer: • receiving cone-beam computed tomography CBCT image data describing a three-dimensional CBCT image of the bony structure, the CBCT image representing the bony structure at a pre-alignment time before the alignment and after planning, wherein the planning was based on CT data or MRI data; • receiving x-ray image data describing at least one two-dimensional x-ray image of the anatomical structure, the at least one two-dimensional x-ray image representing the bony structure and the x-ray image data having been generated at the monitoring time; • receiving imaging position data comprising at least one of CBCT position data and x-ray geometry data, CBCT position data describing the relative position between the CBCT image and the actual arrangement and the x-ray geometry data describing a positional relationship between the actual arrangement and at least one imaging geometry, referred to as x-ray imaging geometry, given for generating the at least one x-ray image; • determining the relative position between the bony structure and the reference position at the monitoring time on the basis of the CBCT image data, the x-ray image data and the imaging position data. • receiving cone-beam computed tomography CBCT image data describing a three-dimensional CBCT image of the bony structure, the CBCT image representing the bony structure at a pre-alignment time before the alignment and after planning, wherein the planning was based on CT data or MRI data; • receiving x-ray image data describing at least one two-dimensional x-ray image of the anatomical structure, the at least one two-dimensional x-ray image representing the bony structure and the x-ray image data having been generated at the monitoring time; • receiving imaging position data comprising at least one of CBCT position data and x-ray geometry data, CBCT position data describing the relative position between the CBCT image and the actual arrangement and the x-ray geometry data describing a positional relationship between the actual arrangement and at least one imaging geometry, referred to as x-ray imaging geometry, given for generating the at least one x-ray image; • determining the relative position between the bony structure and the reference position at the monitoring time on the basis of the CBCT image data, the x-ray image data and the imaging position data.
A method for performing measurement on neighboring cells by a user equipment, UE, in a mobile communication system, the method comprising: generating raw measurement result values by performing measurement on received signals from neighboring cells; receiving measurement-related parameters to be applied to raw measurement result values of first neighboring cells, from the first neighboring cells having raw measurement result values exceeding an absolute threshold, among the neighboring cells, the measurement-related parameters comprising Qoffset values; generating final measurement result values by applying (551, 571, 563) the Qoffset values of the measurement-related parameters to the raw measurement result values of the first neighboring cells; and performing (553, 565, 573) cell selection or cell reselection to one of the first neighboring cells based on the final measurement result values, or transmitting a measurement report to a base station of a serving cell. generating raw measurement result values by performing measurement on received signals from neighboring cells; receiving measurement-related parameters to be applied to raw measurement result values of first neighboring cells, from the first neighboring cells having raw measurement result values exceeding an absolute threshold, among the neighboring cells, the measurement-related parameters comprising Qoffset values; generating final measurement result values by applying (551, 571, 563) the Qoffset values of the measurement-related parameters to the raw measurement result values of the first neighboring cells; and performing (553, 565, 573) cell selection or cell reselection to one of the first neighboring cells based on the final measurement result values, or transmitting a measurement report to a base station of a serving cell.
A computer-implemented method comprising: causing, by a network device, transmission of a first beacon and a second beacon, the first beacon associated with a public wireless network and the second beacon associated with a private wireless network, wherein, at least based on a digital fingerprint associated with a user device, the first beacon is suppressed in favor of the second beacon and/or the transmission of the second beacon is prioritized over the first beacon, wherein the digital fingerprint represents habits of the user device relating to expected time frames when the user device is in proximity to the network device; receiving a request from the user device associated with the second beacon; and providing access to the private wireless network in response to the request. causing, by a network device, transmission of a first beacon and a second beacon, the first beacon associated with a public wireless network and the second beacon associated with a private wireless network, wherein, at least based on a digital fingerprint associated with a user device, the first beacon is suppressed in favor of the second beacon and/or the transmission of the second beacon is prioritized over the first beacon, wherein the digital fingerprint represents habits of the user device relating to expected time frames when the user device is in proximity to the network device; receiving a request from the user device associated with the second beacon; and providing access to the private wireless network in response to the request.
Battery pack for electric vehicles or vehicles with an electro-hybrid drive, comprising a battery housing and self-contained battery cells, which are located within the battery housing and electrically interconnected to obtain a desired terminal voltage, wherein several battery cells are arranged at a distance from one another in a mounting frame and form cell modules, each of the cell modules being arranged on fastening elements passing through the battery housing, characterised in that the fastening elements are designed as spacers between the cell modules and form a supporting unit together with the battery housing; wherein the fastening elements of several cell modules arranged in a row on top of and/or adjacent to one another are connected to one another to form a grid structure and wherein the fastening elements or at least some of the fastening elements are designed as profiled bars which support at least two of the enclosing walls of the battery housing against one another.
Plant for the processing of waste, comprising an outer housing and a grinding cell, in which a grinding chamber is defined having at least one inlet opening for introducing the waste to be processed, and at least one outlet opening for discharging the material resulting from waste processing, said openings (102, 103) being associated with a corresponding closure element (1a,104), adapted to isolate the grinding chamber from the outer environment, wherein said outer housing defines therein a space receiving the cell and integrally surrounds said cell, and in that said space is accessible through at least one door (110,111), characterized in that the housing houses a system capable of generating a washing air flow of the space housing the cell, said washing air flow being conveyed into an effluent processing system of which the plant is equipped.
A method for suppressing one or more harmonic currents in a power supply network, said harmonic currents being generated by one or more loads operationally connected to said power supply network, the method comprising the steps of - providing an active power filter comprising an electronic inverter comprising a number of controllable switches, said electronic inverter being operatively connected to an LCL-filter forming part of said active power filter, and - providing PWM control signals to each of said controllable switches in response to a particular harmonic current or particular harmonic currents to be suppressed in the power supply network, wherein a modulation frequency of at least one PWM control signal varies continuously in response to a value of at least one measured electrical parameter. - providing an active power filter comprising an electronic inverter comprising a number of controllable switches, said electronic inverter being operatively connected to an LCL-filter forming part of said active power filter, and - providing PWM control signals to each of said controllable switches in response to a particular harmonic current or particular harmonic currents to be suppressed in the power supply network,
A subsea load absorber (30, 88, 92) for damping relative movement between subsea bodies, which load absorber (30, 88, 92) is cooperable in use when on one of the subsea bodies with an actuating member on another of the subsea bodies, and comprises: a hollow structure that defines an internal flow path for water, communicating with a proximal opening; and a flow restrictor acting on the flow path that is positioned to restrict a distal flow of water along the flow path from the proximal opening in use and a proximal flow of water through the flow restrictor toward the proximal opening in use, which distal flow is caused by relative convergent movement between the actuating member and the load absorber (30, 88, 92), and which proximal flow is caused by relative divergent movement between the actuating member and the load absorber (30, 88, 92); wherein the flow restrictor comprises a narrowed throat formation, a distal cavity, a proximal cavity, and a shuttle element that is arranged to restrict the flow path, the shuttle element being movably mounted to the structure for automatic movement relative to the structure from a first state to a second state in response to an increase in water pressure at the proximal opening and from the first state to a third state in response to a reduction in water pressure at the proximal opening; wherein the load absorber (30, 88, 92) is arranged such that: in the first state, the shuttle element is aligned with the narrowed throat formation with respect to a flow direction along the flow path, thereby effecting greater restriction of the distal flow along the flow path; in the second state, the shuttle element is aligned with the distal cavity to provide greater clearance around the shuttle element than when the shuttle element is in the first state, thereby effecting lesser restriction of the distal flow along the flow path; and in the third state, a distal edge of the shuttle element aligns with or lies proximally relative to a proximal edge of the narrowed throat formation of the flow restrictor, and the shuttle element is aligned with the proximal cavity to provide greater clearance around the shuttle element than when the shuttle element is in the first state, thereby effecting less restriction of the flow path than in the first state; and wherein the proximal edge of the throat formation has a different profile to a distal edge of the throat formation.
A peptide of or below: a peptide of less than 15 amino acids comprising the amino acid sequence of SEQ ID NO: 1; a peptide of less than 15 amino acids which comprises the amino acid sequence of SEQ ID NO: 1, in which one or two amino acid(s) are substituted, deleted, inserted, and/or added, and wherein the peptide shows cytotoxic (killer) T cell-inducing activity. a peptide of less than 15 amino acids comprising the amino acid sequence of SEQ ID NO: 1; a peptide of less than 15 amino acids which comprises the amino acid sequence of SEQ ID NO: 1, in which one or two amino acid(s) are substituted, deleted, inserted, and/or added, and wherein the peptide shows cytotoxic (killer) T cell-inducing activity.
A decoding apparatus for image decoding, the decoding apparatus comprising: a memory; and at least one processor connected to the memory, the at least one processor configured to: derive a first intra prediction mode based on a left neighboring block of a current block; derive a second intra prediction mode based on an upper neighboring block of the current block; receiving intra prediction mode information; determine an intra prediction mode for the current block based on the intra prediction mode information, the first intra prediction mode and the second intra prediction mode; and generate prediction samples on the current block based on the determined intra prediction mode, characterized in that when the upper neighboring block is not located in a current largest coding unit, LCU, in which the current block is located, the second intra prediction mode is set equal to an intra DC mode. a memory; and at least one processor connected to the memory, the at least one processor configured to: derive a first intra prediction mode based on a left neighboring block of a current block; derive a second intra prediction mode based on an upper neighboring block of the current block; receiving intra prediction mode information; determine an intra prediction mode for the current block based on the intra prediction mode information, the first intra prediction mode and the second intra prediction mode; and generate prediction samples on the current block based on the determined intra prediction mode, derive a first intra prediction mode based on a left neighboring block of a current block; derive a second intra prediction mode based on an upper neighboring block of the current block; receiving intra prediction mode information; determine an intra prediction mode for the current block based on the intra prediction mode information, the first intra prediction mode and the second intra prediction mode; and generate prediction samples on the current block based on the determined intra prediction mode, characterized in that when the upper neighboring block is not located in a current largest coding unit, LCU, in which the current block is located, the second intra prediction mode is set equal to an intra DC mode.
Steering device for a motor vehicle, having - a steering handle, which has an end face, which in a position of use of the steering handle faces a user, wherein the steering handle in the position of use is arranged ready for use for receiving an operating action for steering the motor vehicle by the user, and wherein the steering handle is arranged in the position of rest such that a surface of the steering handle facing away from the user in the position of use faces the user, - a display element of the steering handle, which is arranged on a side of the steering handle facing away from the end face, wherein the steering device is characterised by an adjusting device for changing between a use position of the steering handle and a position of rest of the steering handle by pivoting the steering handle and by a control unit which is configured: - to receive an operating signal from an operating device (26, S1), - to generate a control signal as a function of the received operating signal which describes a driving mode to be set by a driver assistance unit, - to transmit the generated control signal to the driver assistance unit and thereby set the driving mode described by the control signal, - to generate an adjustment signal which describes a change between a position of use of the steering handle and a position of rest of the steering handle by pivoting the steering handle, - to transmit the generated adjustment signal to the adjusting device (16, S5), - to generate a display signal for activating a display element of the steering handle (14, S7) as a function of the set driving mode, and - to transmit the generated display signal to a display device of the motor vehicle or to the display element (31, S8). - a steering handle, which has an end face, which in a position of use of the steering handle faces a user, wherein the steering handle in the position of use is arranged ready for use for receiving an operating action for steering the motor vehicle by the user, and wherein the steering handle is arranged in the position of rest such that a surface of the steering handle facing away from the user in the position of use faces the user, - a display element of the steering handle, which is arranged on a side of the steering handle facing away from the end face, - to receive an operating signal from an operating device (26, S1), - to generate a control signal as a function of the received operating signal which describes a driving mode to be set by a driver assistance unit, - to transmit the generated control signal to the driver assistance unit and thereby set the driving mode described by the control signal, - to generate an adjustment signal which describes a change between a position of use of the steering handle and a position of rest of the steering handle by pivoting the steering handle, - to transmit the generated adjustment signal to the adjusting device (16, S5), - to generate a display signal for activating a display element of the steering handle (14, S7) as a function of the set driving mode, and - to transmit the generated display signal to a display device of the motor vehicle or to the display element (31, S8).
A method comprising: singulating a solar cell (10; 20; 50) to form a plurality of strips, wherein the singulation exposes unpassivated portions of the solar cell (10; 20; 50); sorting the strips which includes placing the singulated strips in a stack with the unpassivated portions aligned; covering at least top and bottom surfaces of the stack or covering all passivated surfaces of the strips placed in the stack leaving only the unpassivated portions exposed; re-passivating (306, 320) the unpassivated portions of the plurality of strips placed in the stack, wherein the re-passivation eliminates active recombination centers; aligning the re-passivated strips in an overlapping pattern; depositing electrically conductive adhesive, ECA, between the overlapped portions of the re-passivated strips, wherein the ECA adheres adjacent re-passivated strips to one another and electrically connects the re-passivated strips to form a string; and encapsulating the string. singulating a solar cell (10; 20; 50) to form a plurality of strips, wherein the singulation exposes unpassivated portions of the solar cell (10; 20; 50); sorting the strips which includes placing the singulated strips in a stack with the unpassivated portions aligned; covering at least top and bottom surfaces of the stack or covering all passivated surfaces of the strips placed in the stack leaving only the unpassivated portions exposed; re-passivating (306, 320) the unpassivated portions of the plurality of strips placed in the stack, wherein the re-passivation eliminates active recombination centers; aligning the re-passivated strips in an overlapping pattern; depositing electrically conductive adhesive, ECA, between the overlapped portions of the re-passivated strips, wherein the ECA adheres adjacent re-passivated strips to one another and electrically connects the re-passivated strips to form a string; and encapsulating the string.
A robot comprising: a base; a movable unit coupled to the base, the movable unit has a first arm pivotably provided relative to the base, and a second arm that pivots relative to the first arm, an imaging unit provided on the second arm of the movable unit; a control board having an imaging calculation unit that calculates output from said imaging unit, a force calculation unit that calculates output from a first force detection unit, and an action calculation unit that calculates an action of the movable unit based on a calculation result by the imaging calculation unit and a calculation result by the force calculation unit, wherein the control board is located inside of the base, a pipe coupling the base and the second arm; and a wire coupling the imaging unit and the control board and inserted through the pipe, wherein the control board has a wiring board and a calculating device provided on the wiring board, and the calculating device includes a plurality of calculation cores, wherein the calculating device has a high-order calculation unit that controls actuation of the control board, the imaging calculation unit, the force calculation unit, and the action calculation unit, and a number of the calculation cores corresponding to the imaging calculation unit is larger than any one of a number of the calculation cores corresponding to the high-order calculation unit, a number of the calculation cores corresponding to the force calculation unit, and a number of the calculation cores corresponding to the action calculation unit. a base; a movable unit coupled to the base, the movable unit has a first arm pivotably provided relative to the base, and a second arm that pivots relative to the first arm, an imaging unit provided on the second arm of the movable unit; a control board having an imaging calculation unit that calculates output from said imaging unit, a force calculation unit that calculates output from a first force detection unit, and an action calculation unit that calculates an action of the movable unit based on a calculation result by the imaging calculation unit and a calculation result by the force calculation unit, wherein the control board is located inside of the base, a pipe coupling the base and the second arm; and a wire coupling the imaging unit and the control board and inserted through the pipe, wherein the control board has a wiring board and a calculating device provided on the wiring board, and the calculating device includes a plurality of calculation cores, wherein the calculating device has a high-order calculation unit that controls actuation of the control board, the imaging calculation unit, the force calculation unit, and the action calculation unit, and a number of the calculation cores corresponding to the imaging calculation unit is larger than any one of a number of the calculation cores corresponding to the high-order calculation unit, a number of the calculation cores corresponding to the force calculation unit, and a number of the calculation cores corresponding to the action calculation unit.