mhurhangee/ep-ind-claims huggingface dataset:
An electrohydrodynamic print head comprising a nozzle layer comprising a plurality of nozzles and nozzle electrodes, and a feed layer arranged above the nozzle layer and comprising a plurality of feed ducts (20a, 20b, 52) extending through said feed layer and connecting at least part of said nozzles to one or more ink terminals of said print head, at least one first voltage terminal, wherein the nozzle electrodes are arranged at a lower level than spouts of the nozzles in order to electrohydrodynamically extract ink from the spouts and accelerate it towards a target located below the print head, wherein said feed layer is, at least in part, of a dielectric material, characterized in that the print head further comprises a plurality of conducting feed lines (26, 46, 50a, 50b) arranged in or on said feed layer, wherein said feed lines (26, 46, 50a, 50b) electrically connect the at least one first voltage terminal to at least part of said nozzle electrodes. a nozzle layer comprising a plurality of nozzles and nozzle electrodes, and a feed layer arranged above the nozzle layer and comprising a plurality of feed ducts (20a, 20b, 52) extending through said feed layer and connecting at least part of said nozzles to one or more ink terminals of said print head, at least one first voltage terminal, wherein the nozzle electrodes are arranged at a lower level than spouts of the nozzles in order to electrohydrodynamically extract ink from the spouts and accelerate it towards a target located below the print head, wherein said feed layer is, at least in part, of a dielectric material, characterized in that the print head further comprises a plurality of conducting feed lines (26, 46, 50a, 50b) arranged in or on said feed layer, wherein said feed lines (26, 46, 50a, 50b) electrically connect the at least one first voltage terminal to at least part of said nozzle electrodes.
A magnetic flowmeter transmitter comprising: a flowtube; measurement circuitry configured to provide an output related to flow through the flowtube; output circuitry coupled to the measurement circuitry and configured to provide a transmitter output related to flow through the flowtube; and output verification circuitry coupled to the output circuitry and configured to verify proper operation of the output circuitry, wherein the output circuitry includes pulse output circuitry configured to provide a pulse output on electrical wiring in order to transmit flow information, and wherein the output verification circuitry is configured to verify a pulse output frequency in order to verify proper operation of the pulse output circuitry. a flowtube; measurement circuitry configured to provide an output related to flow through the flowtube; output circuitry coupled to the measurement circuitry and configured to provide a transmitter output related to flow through the flowtube; and output verification circuitry coupled to the output circuitry and configured to verify proper operation of the output circuitry, wherein the output circuitry includes pulse output circuitry configured to provide a pulse output on electrical wiring in order to transmit flow information, and wherein the output verification circuitry is configured to verify a pulse output frequency in order to verify proper operation of the pulse output circuitry.
A pixel comprising: a pixel circuit configured to control a first amount of current to be supplied to an organic light-emitting diode, OLED, in response to a data signal provided from a data line, DLj; and a light sensor circuit configured to sense a touch location and/or a fingerprint of a user through a light sensing operation, the light sensor circuit being coupled between the data line and the pixel circuit and configured to control a second amount of current to be supplied to the pixel circuit in response to incident light, wherein the light sensor circuit comprises: a light sensor circuit switching transistor, ST, coupled to the data line; and a light sensing element, LSU, coupled between the light sensor circuit switching transistor, ST, and a gate electrode of a driving transistor, DR, included in the pixel circuit, and characterized in that the light sensor circuit switching transistor, ST, is arranged to be turned on when a first gate signal is applied thereto through a first gate line, to electrically connect the data line with the light sensing element, LSU. a pixel circuit configured to control a first amount of current to be supplied to an organic light-emitting diode, OLED, in response to a data signal provided from a data line, DLj; and a light sensor circuit configured to sense a touch location and/or a fingerprint of a user through a light sensing operation, the light sensor circuit being coupled between the data line and the pixel circuit and configured to control a second amount of current to be supplied to the pixel circuit in response to incident light, wherein the light sensor circuit comprises: a light sensor circuit switching transistor, ST, coupled to the data line; and a light sensing element, LSU, coupled between the light sensor circuit switching transistor, ST, and a gate electrode of a driving transistor, DR, included in the pixel circuit, and characterized in that the light sensor circuit switching transistor, ST, is arranged to be turned on when a first gate signal is applied thereto through a first gate line, to electrically connect the data line with the light sensing element, LSU. a light sensor circuit switching transistor, ST, coupled to the data line; and a light sensing element, LSU, coupled between the light sensor circuit switching transistor, ST, and a gate electrode of a driving transistor, DR, included in the pixel circuit, and characterized in that the light sensor circuit switching transistor, ST, is arranged to be turned on when a first gate signal is applied thereto through a first gate line, to electrically connect the data line with the light sensing element, LSU.
Cannula for use with a medical, in particular a dental, treatment instrument which is designed to dispense an abrasive flow medium, wherein the cannula is arranged at a front end of the treatment instrument, and a cannula body has at least one outlet opening for the abrasive flow medium, wherein the cannula body has an inner tube and, surrounding the inner tube, an outer tube, wherein, at a front end region of the cannula body, the outer tube extends with a protruding part beyond the inner tube and a nozzle part is formed by the protruding part of the outer tube, wherein the nozzle part has a conical mixing chamber for the flow medium, which mixing chamber is shaped such that it tapers towards the outlet opening, wherein a cannula base is provided for connecting the cannula to a handpiece of the treatment instrument, wherein the inner tube and the outer tube extend from the front end region of the cannula body to the cannula base, wherein the cannula base is designed extending around a rear end region of the inner tube and around a rear end region of the outer tube.
A method of encoding a video signal, comprising: receiving an original video signal including a current BxB block, the current block including pixels at positions (i, j) with i e {1, 2,..., B} and j e {1, 2,..., B}, wherein the current block comprises at least one layer unit, and the at least one layer unit is defined as a L shape layer L k including pixels at locations (k, j) and (i, k), wherein k = 1, 2,..., B; performing a prediction in a layer unit, wherein a current layer L k is predicted based on the reconstructed pixels of one or more of the previous layers L 1,..., L k -1 or based on pixels of a previously coded neighboring block, wherein the pixels of the previously coded neighboring block represent pixels neighboring a boundary of the current block; generating a residual signal in the layer unit based on a result of the prediction; (S810 to S830) obtaining an optimal quantized coefficient by performing an optimization process for the residual signal; and performing an entropy encoding for the optimal quantized coefficient; wherein the optimization process comprises iteratively comparing a difference between a quantized coefficient C n of a current iteration n and the corresponding quantized coefficient C n-1 of a previous iteration n-1 with a predetermined threshold value; and wherein the quantized coefficient C n of the current iteration n is determined to be the optimal quantized coefficient if the difference is found to be equal to or smaller than the threshold. receiving an original video signal including a current BxB block, the current block including pixels at positions (i, j) with i e {1, 2,..., B} and j e {1, 2,..., B}, wherein the current block comprises at least one layer unit, and the at least one layer unit is defined as a L shape layer L k including pixels at locations (k, j) and (i, k), wherein k = 1, 2,..., B; performing a prediction in a layer unit, wherein a current layer L k is predicted based on the reconstructed pixels of one or more of the previous layers L 1,..., L k -1 or based on pixels of a previously coded neighboring block, wherein the pixels of the previously coded neighboring block represent pixels neighboring a boundary of the current block; generating a residual signal in the layer unit based on a result of the prediction; (S810 to S830) obtaining an optimal quantized coefficient by performing an optimization process for the residual signal; and performing an entropy encoding for the optimal quantized coefficient; wherein the optimization process comprises iteratively comparing a difference between a quantized coefficient C n of a current iteration n and the corresponding quantized coefficient C n-1 of a previous iteration n-1 with a predetermined threshold value; and wherein the quantized coefficient C n of the current iteration n is determined to be the optimal quantized coefficient if the difference is found to be equal to or smaller than the threshold.
A method of managing wireless network coding comprising: determining whether a network infrastructure allows for wireless network coding between networks; if yes, selecting, from a neighbor network of the network infrastructure, nodes usable to constitute an inter-network wireless network coding group; and forming the inter-network wireless network coding group and performing a schedule design wherein determining whether the network infrastructure allows for wireless network coding between networks comprises: obtaining resource information of the network infrastructure; determining whether the wireless network coding between networks is allowed by using the resource information of the network infrastructure, based on a load status of the network infrastructure, and wherein the network infrastructure is a base station, wherein the base station is a macro base station, a micro base station, a femto base station or a relay base station. determining whether a network infrastructure allows for wireless network coding between networks; if yes, selecting, from a neighbor network of the network infrastructure, nodes usable to constitute an inter-network wireless network coding group; and forming the inter-network wireless network coding group and performing a schedule design wherein determining whether the network infrastructure allows for wireless network coding between networks comprises: obtaining resource information of the network infrastructure; determining whether the wireless network coding between networks is allowed by using the resource information of the network infrastructure, based on a load status of the network infrastructure, and wherein the network infrastructure is a base station, wherein the base station is a macro base station, a micro base station, a femto base station or a relay base station. obtaining resource information of the network infrastructure; determining whether the wireless network coding between networks is allowed by using the resource information of the network infrastructure, based on a load status of the network infrastructure, and wherein the network infrastructure is a base station, wherein the base station is a macro base station, a micro base station, a femto base station or a relay base station.
Silicone casing for a mouthpiece of a vibratory tooth cleaning device for the simultaneous cleaning of several, preferably all, of a user's teeth, comprising: an upper jaw section; and a lower jaw section, wherein the upper jaw section and the lower jaw section each correspond to a negative impression of an upper or lower jaw of a human dentition and are each adapted to inner and outer tooth flanks and, in the region of the posterior teeth, additionally to occlusal surfaces of the upper or lower jaw of the user during use of the vibratory tooth cleaning device, wherein the silicone casing on the upper and lower jaw sections (210a, 210b) has cleaning structures adapted to contact the teeth of the upper or lower jaw at the tooth flanks and occlusal surfaces during operation, and wherein the silicone casing, in a cross-section perpendicular to surfaces (211a, 211b, 213a, 213b) of the upper and lower jaw sections (210a, 210b) corresponding to the tooth flanks, in the region of the upper and lower jaw sections (210a, 210b) each comprises an M-shape, wherein the inner flanks (211a, 211b, 212a, 212b, 213a, 213b) of the M-shape form the upper and lower jaw sections (210a, 210b), respectively, and the lower ends of the outer flanks of the M-shape (220, 230) of the lower jaw section are connected to corresponding lower ends of outer flanks (220, 230) of the M-shape of the upper jaw section. an upper jaw section; and a lower jaw section, wherein the upper jaw section and the lower jaw section each correspond to a negative impression of an upper or lower jaw of a human dentition and are each adapted to inner and outer tooth flanks and, in the region of the posterior teeth, additionally to occlusal surfaces of the upper or lower jaw of the user during use of the vibratory tooth cleaning device, wherein the silicone casing on the upper and lower jaw sections (210a, 210b) has cleaning structures adapted to contact the teeth of the upper or lower jaw at the tooth flanks and occlusal surfaces during operation, and wherein the silicone casing, in a cross-section perpendicular to surfaces (211a, 211b, 213a, 213b) of the upper and lower jaw sections (210a, 210b) corresponding to the tooth flanks, in the region of the upper and lower jaw sections (210a, 210b) each comprises an M-shape, wherein the inner flanks (211a, 211b, 212a, 212b, 213a, 213b) of the M-shape form the upper and lower jaw sections (210a, 210b), respectively, and the lower ends of the outer flanks of the M-shape (220, 230) of the lower jaw section are connected to corresponding lower ends of outer flanks (220, 230) of the M-shape of the upper jaw section.
An isolated immunogenic peptide, wherein the peptide consists of: (a) an amino acid sequence having at least 95% sequence identity with SEQ ID NO: 1, 2, 3, or 4; or (b) an amino acid sequence having at least 95% sequence identity with SEQ ID NO: 1 2, 3, or 4, fused to a heterologous peptide. (a) an amino acid sequence having at least 95% sequence identity with SEQ ID NO: 1, 2, 3, or 4; or (b) an amino acid sequence having at least 95% sequence identity with SEQ ID NO: 1 2, 3, or 4, fused to a heterologous peptide.
A splicing screen, comprising: a flexible screen; a hard LED screen; a flexible circuit board, a signal line in the hard LED screen being bonded to the flexible circuit board, and a signal line in the flexible circuit board being bonded to the flexible screen, characterized in that the flexible screen has an opening running through the flexible screen, and the hard LED screen is provided in the opening. a flexible screen; a hard LED screen; a flexible circuit board, a signal line in the hard LED screen being bonded to the flexible circuit board, and a signal line in the flexible circuit board being bonded to the flexible screen, characterized in that the flexible screen has an opening running through the flexible screen, and the hard LED screen is provided in the opening.
A turbo machine comprising: a low pressure shaft coupled to a low pressure turbine; and a high pressure shaft coupled to a high pressure turbine, the high pressure shaft and low pressure shaft being rotatable about a central rotational axis; a compressor system comprising: a fan driven by the low pressure turbine via the low pressure shaft; a booster compressor; and an epicyclic gear unit; and the turbo machine further comprising an intermediate rotor comprising rotatable elements (16, 43a) of: the booster compressor; and an electric motor-generator; characterised in that: the low pressure shaft is coupled to a planet carrier of the epicyclic gear unit; the high pressure shaft is coupled to a sun gear of the epicyclic gear unit; an intermediate rotor is coupled to an annulus gear of the epicyclic gear unit; and the low pressure shaft and high pressure shaft are configured, in use, to contra-rotate; such that the intermediate rotor and electric motor-generator are driven by the low-pressure shaft and the high-pressure shaft at a speed, and with a power output, defined by a summing relation of the low-pressure shaft and the high-pressure shaft. a low pressure shaft coupled to a low pressure turbine; and a high pressure shaft coupled to a high pressure turbine, the high pressure shaft and low pressure shaft being rotatable about a central rotational axis; a compressor system comprising: a fan driven by the low pressure turbine via the low pressure shaft; a booster compressor; and an epicyclic gear unit; and a fan driven by the low pressure turbine via the low pressure shaft; a booster compressor; and an epicyclic gear unit; and the turbo machine further comprising an intermediate rotor comprising rotatable elements (16, 43a) of: the booster compressor; and an electric motor-generator; the booster compressor; and an electric motor-generator; the low pressure shaft is coupled to a planet carrier of the epicyclic gear unit; the high pressure shaft is coupled to a sun gear of the epicyclic gear unit; an intermediate rotor is coupled to an annulus gear of the epicyclic gear unit; and the low pressure shaft and high pressure shaft are configured, in use, to contra-rotate; such that the intermediate rotor and electric motor-generator are driven by the low-pressure shaft and the high-pressure shaft at a speed, and with a power output, defined by a summing relation of the low-pressure shaft and the high-pressure shaft.
A method for detecting structural data in a nucleic acid, the method comprising: a. providing an RNA that has been exposed to a reagent that provides a chemical modification, wherein the reagent comprises an electrophile that selectively modifies unconstrained nucleotides in the RNA to form a covalent ribose 2'-O- adduct or wherein the reagent is dimethyl sulfate, DMS, and forms adducts at the N1 position of adenosine and the N3 position of cytosine; b. synthesizing a nucleic acid using a reverse transcriptase and the RNA provided in step (a) as a template, wherein the synthesis occurs in the presence of Mn 2+ wherein the reverse transcriptase reads through the chemical modification in the RNA provided in step (a) to thereby produce a non-complementary nucleotide or a deletion in the resulting nucleic acid at the site of the chemical modification; and c. detecting the nucleotide non-complementary to the template nucleotide or the deletion by sequencing the nucleic acid, wherein the sequence information is aligned with the sequence of the RNA provided in step (a). a. providing an RNA that has been exposed to a reagent that provides a chemical modification, wherein the reagent comprises an electrophile that selectively modifies unconstrained nucleotides in the RNA to form a covalent ribose 2'-O- adduct or wherein the reagent is dimethyl sulfate, DMS, and forms adducts at the N1 position of adenosine and the N3 position of cytosine; b. synthesizing a nucleic acid using a reverse transcriptase and the RNA provided in step (a) as a template, wherein the synthesis occurs in the presence of Mn 2+ wherein the reverse transcriptase reads through the chemical modification in the RNA provided in step (a) to thereby produce a non-complementary nucleotide or a deletion in the resulting nucleic acid at the site of the chemical modification; and c. detecting the nucleotide non-complementary to the template nucleotide or the deletion by sequencing the nucleic acid, wherein the sequence information is aligned with the sequence of the RNA provided in step (a).
A machine for separative machining of a plate-shaped workpiece by means of a processing beam, comprising: a first movement unit for moving the workpiece in a first direction; a second movement unit for moving a processing head directing the processing beam onto the workpiece in a second direction, as well as two workpiece bearing faces (4, 5) for bearing the workpiece, a gap that extends along the second direction being formed between said two workpiece bearing faces (4, 5), a parts chute which is movable between a first position and a second position, wherein in the second position a chute face of the parts chute is arranged in the gap so as to move a workpiece part, that is cut free from the workpiece and drops into the gap, laterally next to the gap; characterized by a receiving unit, movable in the second direction, for receiving the workpiece part at a transfer position (Y UP) in the second direction as well as for transporting the workpiece part received at the transfer position (Y UP) to different discharging positions (Y A1, Y A2,...) of the machine along the second direction, wherein the receiving unit has at least one discharging unit (28a, 28b) movable between a first position for supporting the workpiece part and a second position for discharging the workpiece part. a first movement unit for moving the workpiece in a first direction; a second movement unit for moving a processing head directing the processing beam onto the workpiece in a second direction, as well as two workpiece bearing faces (4, 5) for bearing the workpiece, a gap that extends along the second direction being formed between said two workpiece bearing faces (4, 5), a parts chute which is movable between a first position and a second position, wherein in the second position a chute face of the parts chute is arranged in the gap so as to move a workpiece part, that is cut free from the workpiece and drops into the gap, laterally next to the gap; characterized by a receiving unit, movable in the second direction, for receiving the workpiece part at a transfer position (Y UP) in the second direction as well as for transporting the workpiece part received at the transfer position (Y UP) to different discharging positions (Y A1, Y A2,...) of the machine along the second direction, wherein the receiving unit has at least one discharging unit (28a, 28b) movable between a first position for supporting the workpiece part and a second position for discharging the workpiece part.