mhurhangee/ep-ind-claims huggingface dataset:
A communications device comprising a transmitter configured to transmit signals to one or more other communications devices via a wireless access interface to perform device-to-device communications, a receiver configured to receive signals from the one or more other communications devices via the wireless access interface, and a controller for controlling the transmitter and the receiver to transmit or to receive the signals via the wireless access interface to transmit or to receive data represented by the signals, the wireless access interface providing a scheduling region comprising a plurality of predetermined sections of communications resources, and a plurality of predetermined sections of shared communications resources, wherein each of the plurality of predetermined sections of the scheduling region correspond to one of the plurality of sections of the shared communications resources, so that when the receiver detects a transmission in one or more of the plurality of the sections of the scheduling region then the controller is configured to determine that one or more corresponding sections of the shared communications resources are reserved for a transmission of the signals representing the data, the wireless access interface is divided into a plurality of time divided units (704, 706, 708, 710), the scheduling region comprises the plurality of the predetermined sections of communications resources provided in one of the time divided units, and the plurality of sections of the shared communications resources is provided in at least one other of the time divided units.
A method for quality-aware transcoding of an input image into an output image for display on a terminal having device file size and image size constraints, the method comprising steps of: (a) extracting features of the input image including dimensions and a file size of the input image; (b) predicting a file size of the output image taking into account the constraints of the terminal and the extracted features, comprising selecting a set of feasible transcoding parameters so that a corresponding predicted file size of the output image meets the device file size constraint of the terminal, comprising: selecting the set of feasible transcoding parameters using an array of predicted relative output file sizes for image transcoding, the array being indexed by transcoding parameters including a transcoder scaling factor zT and an output encoding quality factor QFT of the output image; (c) determining quality metric values of the output image, characterizing a measure of distortion of the input image introduced by the transcoding, corresponding to feasible transcoding parameters in the set of feasible transcoding parameters; and (d) selecting those transcoding parameters from the set of feasible transcoding parameters, which yield the highest quality metric value. (a) extracting features of the input image including dimensions and a file size of the input image; (b) predicting a file size of the output image taking into account the constraints of the terminal and the extracted features, comprising selecting a set of feasible transcoding parameters so that a corresponding predicted file size of the output image meets the device file size constraint of the terminal, comprising: selecting the set of feasible transcoding parameters using an array of predicted relative output file sizes for image transcoding, the array being indexed by transcoding parameters including a transcoder scaling factor zT and an output encoding quality factor QFT of the output image; (c) determining quality metric values of the output image, characterizing a measure of distortion of the input image introduced by the transcoding, corresponding to feasible transcoding parameters in the set of feasible transcoding parameters; and (d) selecting those transcoding parameters from the set of feasible transcoding parameters, which yield the highest quality metric value.
A blade tip-provided micropipette holding apparatus comprising a tubular micropipette holder so constructed that a blade tip-provided micropipette to be inserted into a living cell can be mounted on a front-end portion thereof and a holder-holding device for holding said micropipette holder; wherein said holder-holding device has a base member and a tubular rotating member which is rotatably held by said base member and into which said micropipette holder can be penetrated; and said tubular rotating member has a holder position adjusting mechanism (6, 7), characterized in that said tubular rotating member comprises a plurality of side holes formed on a side surface of said tubular rotating member at different positions in a circumferential direction thereof and holder position adjusting members (62, 72) each capable of entering into said tubular rotating member from said side holes and contacting an outer surface of said micropipette holder penetrating through said tubular rotating member.
A computer-implemented method for providing haptic effects on a bendable-foldable display device having a first flap and a second flap coupled by a hinge, the method comprising: receiving input from one or more sensors indicating deformation of the bendable-foldable display device, wherein the one or more sensors are configured to detect a folding characteristic between the first flap and the second flap and configured to detect a bending characteristic in the first flap; determining deformation characteristics of the bendable-foldable display device based on one or more measurements of the folding characteristic and the bending characteristic provided by the input; and characterised in that: the folding characteristic is based on a value of an opening angle at the hinge between the first flap and the second flap; and the method further comprises generating haptic feedback based on the deformation characteristics, the haptic feedback including kinesthetic feedback to move or change the stiffness of at least one of the first flap or the second flap. receiving input from one or more sensors indicating deformation of the bendable-foldable display device, wherein the one or more sensors are configured to detect a folding characteristic between the first flap and the second flap and configured to detect a bending characteristic in the first flap; determining deformation characteristics of the bendable-foldable display device based on one or more measurements of the folding characteristic and the bending characteristic provided by the input; and characterised in that: the folding characteristic is based on a value of an opening angle at the hinge between the first flap and the second flap; and the method further comprises generating haptic feedback based on the deformation characteristics, the haptic feedback including kinesthetic feedback to move or change the stiffness of at least one of the first flap or the second flap.
An isolated monoclonal antibody, or an antigen-binding portion thereof, wherein the antibody binds to human CD22, comprising: (a) a heavy chain variable region CDR1 comprising amino acids having the sequence set forth in SEQ ID NO:2; (b) a heavy chain variable region CDR2 comprising amino acids having the sequence set forth in SEQ ID NO:6 or SEQ ID NO:60; (c) a heavy chain variable region CDR3 comprising amino acids having the sequence set forth in SEQ ID NO:10; (d) a light chain variable region CDR1 comprising amino acids having the sequence set forth in SEQ ID NO:14; (e) a light chain variable region CDR2 comprising amino acids having the sequence set forth in SEQ ID NO:20; and (f) a light chain variable region CDR3 comprising amino acids having the sequence set forth in SEQ ID NO:26. (a) a heavy chain variable region CDR1 comprising amino acids having the sequence set forth in SEQ ID NO:2; (b) a heavy chain variable region CDR2 comprising amino acids having the sequence set forth in SEQ ID NO:6 or SEQ ID NO:60; (c) a heavy chain variable region CDR3 comprising amino acids having the sequence set forth in SEQ ID NO:10; (d) a light chain variable region CDR1 comprising amino acids having the sequence set forth in SEQ ID NO:14; (e) a light chain variable region CDR2 comprising amino acids having the sequence set forth in SEQ ID NO:20; and (f) a light chain variable region CDR3 comprising amino acids having the sequence set forth in SEQ ID NO:26.
A method for assembly of a cathode for an X-ray tube, the method comprising the following steps: a) providing a cathode cup with at least two support structure holes; b) inserting and soldering at least two support structures in the support structure holes; c) machining a recess (314, 42), forming a filament cavity, into the cathode cup; d) in the same machining action as c) machining the support structures by forming a notch at a reception end of each of the support structures to receive the end of a helical filament; and e) inserting each end of a totally recrystallized filament, having at least a partial helical structure, into each of the notches of the support structures. a) providing a cathode cup with at least two support structure holes; b) inserting and soldering at least two support structures in the support structure holes; c) machining a recess (314, 42), forming a filament cavity, into the cathode cup; d) in the same machining action as c) machining the support structures by forming a notch at a reception end of each of the support structures to receive the end of a helical filament; and e) inserting each end of a totally recrystallized filament, having at least a partial helical structure, into each of the notches of the support structures.
A system for visual management of bioprocess (106, 108, 110) automation, the system comprising: a processor and a memory, the processor configured to: present a graphical presentation for the design of an automation script for the bioprocess (106, 108, 110) and results associated with execution of the said script, wherein the graphical presentation comprises an anticipated result and an anticipated flow path associated with said bioprocess (106, 108, 110); and to modify the graphical presentation by varying at least one of the anticipated result and the anticipated flow path, the system being characterized in that said bioprocess (106, 108, 110) includes a chromatography process, and in that the process has a plurality of phases including a prime phase, a sample phase, an elution phase and a wash phase, and in that the graphical presentation comprises a plurality of graphical elements (202, 204), wherein each graphical element (202, 204) is associated with a measurement parameter associated with the bioprocess (106, 108, 110), and with one of the phases of the plurality of phases; and wherein the processor modifies the graphical presentation by editing the graphical element (202, 204) for changing the measurement parameter based on user input thereby varying at least one of the anticipated result and the anticipated flow path of the bioprocess (106, 108, 110). present a graphical presentation for the design of an automation script for the bioprocess (106, 108, 110) and results associated with execution of the said script, wherein the graphical presentation comprises an anticipated result and an anticipated flow path associated with said bioprocess (106, 108, 110); and to modify the graphical presentation by varying at least one of the anticipated result and the anticipated flow path, the system being characterized in that said bioprocess (106, 108, 110) includes a chromatography process, and in that the process has a plurality of phases including a prime phase, a sample phase, an elution phase and a wash phase, and in that the graphical presentation comprises a plurality of graphical elements (202, 204), wherein each graphical element (202, 204) is associated with a measurement parameter associated with the bioprocess (106, 108, 110), and with one of the phases of the plurality of phases; and wherein the processor modifies the graphical presentation by editing the graphical element (202, 204) for changing the measurement parameter based on user input thereby varying at least one of the anticipated result and the anticipated flow path of the bioprocess (106, 108, 110).
A method for estimating motion between images associated with a common region of interest, the method comprising: providing frames including a reference frame and a target frame; estimating a global motion vector based on a comparison of the reference frame and the target frame, wherein estimating a global motion vector comprises calculating a first function correlating a macro-block corresponding to a substantial majority of the reference frame with a plurality of candidate displacements of the macro-block in the target frame and choosing as global motion vector the displacement for which the function is optimal; for a plurality of blocks in the reference frame, estimating local motion vectors between the reference frame and the target frame based on the global motion vector to form globally adjusted local motion vectors, wherein estimating local motion vectors comprises transforming the global motion vector in a parameter appearing in a second function correlating each local block in the reference frame with a plurality of displacement of the same block in the target frame and choosing as local motion the displacement for which the function is optimal, wherein the second function comprises a distance relation between the candidate displacement and the global motion vector; considering the globally adjusted local motion vectors as motion estimator. providing frames including a reference frame and a target frame; estimating a global motion vector based on a comparison of the reference frame and the target frame, wherein estimating a global motion vector comprises calculating a first function correlating a macro-block corresponding to a substantial majority of the reference frame with a plurality of candidate displacements of the macro-block in the target frame and choosing as global motion vector the displacement for which the function is optimal; for a plurality of blocks in the reference frame, estimating local motion vectors between the reference frame and the target frame based on the global motion vector to form globally adjusted local motion vectors, wherein estimating local motion vectors comprises transforming the global motion vector in a parameter appearing in a second function correlating each local block in the reference frame with a plurality of displacement of the same block in the target frame and choosing as local motion the displacement for which the function is optimal, wherein the second function comprises a distance relation between the candidate displacement and the global motion vector; considering the globally adjusted local motion vectors as motion estimator.
A sealing machine for sealing a disposable tray, comprising an upper part and a lower part, where the upper part comprises a sealing plate having a sealing surface adapted to heat a foil such that the foil adheres to the rim of a tray, characterized in that the lower part comprises a plurality of knives (17, 18) that are adapted to cut the foil by a movement of the knife in an upward direction towards the foil, and where the knives (17, 18) are fixedly mounted in a detachable cartridge.
An inlet for use with a nacelle having an axis, comprising: an outer barrel; and a lip skin defining a plurality of elongated exit holes including a first circumferential outer hole, a second circumferential outer hole, and a plurality of center holes located between the first circumferential outer hole and the second circumferential outer hole, the first circumferential outer hole being located at least 10 degrees of an entire circumference of the inlet away from the second circumferential outer hole, wherein: the plurality of center holes includes: a first circumferential inner hole located adjacent to the first circumferential outer hole, a second circumferential inner hole located adjacent to the second circumferential outer hole, and a plurality of middle holes located between the first circumferential inner hole and the second circumferential inner hole; and wherein an outer distance between the first circumferential outer hole and the first circumferential inner hole equals an outer distance between the second circumferential outer hole and the second circumferential inner hole; characterised in that the inner distance between each pair of adjacent middle holes of the plurality of middle holes is less than the outer distance. an outer barrel; and a lip skin defining a plurality of elongated exit holes including a first circumferential outer hole, a second circumferential outer hole, and a plurality of center holes located between the first circumferential outer hole and the second circumferential outer hole, the first circumferential outer hole being located at least 10 degrees of an entire circumference of the inlet away from the second circumferential outer hole, wherein: the plurality of center holes includes: a first circumferential inner hole located adjacent to the first circumferential outer hole, a second circumferential inner hole located adjacent to the second circumferential outer hole, and a plurality of middle holes located between the first circumferential inner hole and the second circumferential inner hole; and wherein an outer distance between the first circumferential outer hole and the first circumferential inner hole equals an outer distance between the second circumferential outer hole and the second circumferential inner hole; characterised in that the inner distance between each pair of adjacent middle holes of the plurality of middle holes is less than the outer distance. a first circumferential inner hole located adjacent to the first circumferential outer hole, a second circumferential inner hole located adjacent to the second circumferential outer hole, and a plurality of middle holes located between the first circumferential inner hole and the second circumferential inner hole; and wherein an outer distance between the first circumferential outer hole and the first circumferential inner hole equals an outer distance between the second circumferential outer hole and the second circumferential inner hole; characterised in that the inner distance between each pair of adjacent middle holes of the plurality of middle holes is less than the outer distance.
A device for minimally invasive delivery of a drug formulation into the suprachoroidal space of the eye comprising a needle having a leading tip shaped to allow passage through scleral tissues without damage to the underlying choroidal tissues, and a sensor to guide placement of said tip to deliver said formulation adjacent to or within the suprachoroidal space, wherein the device further comprises an angled stop plate located on said device to interface with the outer surface of the eye and set the depth and angle of penetration of said leading tip relative to the eye surface.
A method for the generative production of a three-dimensional object from a material which can be solidified by cooling and which has a temperature-dependent viscosity, wherein the material which can be solidified by cooling is kept as a fluid in at least one material reservoir which has a nozzle with a nozzle opening (4.1), at a predetermined temperature and under a predetermined pressure, and the nozzle and an object carrier, on which the three-dimensional object is to be produced, are moved three-dimensionally relative to one another, partial volumes of the fluid being discharged onto the object carrier in a controllable manner through the nozzle opening (4.1) of the nozzle, wherein, for the purpose of the controlled discharge of the partial volumes of the fluid, the nozzle is heated independently of the material reservoir by at least one radiation-transmitting unit so that, by means of a temporally and/or power-controlled energy input by a laser radiation (6.1) from at least one laser radiation source, the temperature of a partial volume of the fluid is raised to a passage temperature above the predetermined temperature, at which the viscosity of the partial volume adjacent to the nozzle is so low that the partial volume is ejected through the nozzle opening (4.1) under the predetermined pressure.
An apparatus comprising: an antenna, wherein the antenna is a dual-arm antenna having two arms, the two arms have different lengths with ends facing each other without overlapping each other; a parasitic arm electromagnetically coupled to the antenna, wherein the parasitic arm is disposed between the two ends of the two arms; and a tunable load coupled to the parasitic arm, wherein a capacitance of the tunable load is variable, and wherein an operating frequency band of the antenna depends on the capacitance, wherein the antenna resides on a housing of the apparatus, and the parasitic arm resides on a printed circuit board, PCB, of the apparatus, wherein the housing allows the antenna to be physically separated from the PCB and the housing is connected to the PCB. an antenna, wherein the antenna is a dual-arm antenna having two arms, the two arms have different lengths with ends facing each other without overlapping each other; a parasitic arm electromagnetically coupled to the antenna, wherein the parasitic arm is disposed between the two ends of the two arms; and a tunable load coupled to the parasitic arm, wherein a capacitance of the tunable load is variable, and wherein an operating frequency band of the antenna depends on the capacitance, wherein the antenna resides on a housing of the apparatus, and the parasitic arm resides on a printed circuit board, PCB, of the apparatus, wherein the housing allows the antenna to be physically separated from the PCB and the housing is connected to the PCB.
A method for determining a type of fault in a power line, the method comprising: obtaining voltage and current measurements at a measurement point of the power line; determining transient energies over a first time period for a number of phase-to-ground loops and phase-to-phase loops of the power line, based on the obtained voltage and current measurements; determining transient energy ratios for the phase-to-ground loops and phase-to-phase loops; comparing the transient energy ratios with thresholds corresponding to the phase-to-ground loops or phase-to-phase loops; and determining a type of fault based on the comparison. obtaining voltage and current measurements at a measurement point of the power line; determining transient energies over a first time period for a number of phase-to-ground loops and phase-to-phase loops of the power line, based on the obtained voltage and current measurements; determining transient energy ratios for the phase-to-ground loops and phase-to-phase loops; comparing the transient energy ratios with thresholds corresponding to the phase-to-ground loops or phase-to-phase loops; and determining a type of fault based on the comparison.