mhurhangee/ep-ind-claims huggingface dataset:
Device for sealing thermoplastic tubes of a first and second tube group (1, 2), including two tube holders (100, 200) each having a first (101, 201) and a second tube clamp (102, 202) and also a sealing blade, wherein the tubes of the first tube group can be inserted, specifically in a continuous manner, between the two tube holders (100, 200) in passage openings (11, 21) of the two first tube clamps (101, 201) and pinched therein, wherein the tubes of the second tube group can be inserted, specifically in a continuous manner, between the two tube holders (100, 200) in passage openings (12, 22) of the two second tube clamps (102, 202) and pinched therein, wherein the sealing blade can be moved between the first and the second tube holder (100, 200) and is configured in the process to sever the pinched tubes of the first and the second tube group (1, 2) in one movement in order to create cut ends (1', 2') and remaining ends (1", 2") in this way, wherein one of the two tube holders (100, 200) can be displaced relative to the other tube holder (100, 200) in order to align the cut ends (1', 2') of the tubes with one another as a result, and wherein the two tube holders (100, 200) can be displaced in a horizontal direction towards one another or away from one another, in order as a result to seal a respective cut end of a tube of the first tube group to a respective cut end of a tube of the second tube group to form a respective continuous tube at the same time, characterized in that the passage openings (11, 21) of the two first tube clamps (101, 201) are arranged on a first plane and the passage openings (12, 22) of the two second tube clamps (102, 202) are arranged on a second plane, wherein the first plane is arranged parallel to and spaced apart from the second plane.
A method of adjusting multi-view images of a head to correct gaze, the method comprising in each image, identifying image patches containing the left and right eyes of the head, respectively; in respect of the image patches containing the left eyes of the head in each image of the multi-view images, and also in respect of the image patches containing the right eyes of the head in each image of the multi-view images, performing the steps of: deriving a feature vector from plural local image descriptors of the image patch in at least one image of the multi-view images; and deriving a displacement vector field representing a transformation of an image patch, using the derived feature vector to look up reference data comprising reference displacement vector fields associated with possible values of the feature vector; and adjusting each image of the multi-view images by transforming the image patches containing the left and right eyes of the head in accordance with the derived displacement vector field. in each image, identifying image patches containing the left and right eyes of the head, respectively; in respect of the image patches containing the left eyes of the head in each image of the multi-view images, and also in respect of the image patches containing the right eyes of the head in each image of the multi-view images, performing the steps of: deriving a feature vector from plural local image descriptors of the image patch in at least one image of the multi-view images; and deriving a displacement vector field representing a transformation of an image patch, using the derived feature vector to look up reference data comprising reference displacement vector fields associated with possible values of the feature vector; and adjusting each image of the multi-view images by transforming the image patches containing the left and right eyes of the head in accordance with the derived displacement vector field. deriving a feature vector from plural local image descriptors of the image patch in at least one image of the multi-view images; and deriving a displacement vector field representing a transformation of an image patch, using the derived feature vector to look up reference data comprising reference displacement vector fields associated with possible values of the feature vector; and adjusting each image of the multi-view images by transforming the image patches containing the left and right eyes of the head in accordance with the derived displacement vector field.
An apparatus for determining the occurrence of a QRS complex in ECG data acquired from a subject being monitored, comprising: - a receiving unit configured to receive a first, second and third set of ECG data that are acquired by respectively electrode leads II, V4 and V5 attached to the subject; - a detecting unit configured to evaluate the first, second and third set of ECG data so as to detect whether or not a QRS complex occurs within a predefined temporal window in the respective set of ECG data; and - an output configured to output a message indicating an occurrence of a QRS complex within the predefined temporal window if a QRS complex has been detected within the predefined temporal window in at least two of the first, second and third sets of ECG data. - a receiving unit configured to receive a first, second and third set of ECG data that are acquired by respectively electrode leads II, V4 and V5 attached to the subject; - a detecting unit configured to evaluate the first, second and third set of ECG data so as to detect whether or not a QRS complex occurs within a predefined temporal window in the respective set of ECG data; and - an output configured to output a message indicating an occurrence of a QRS complex within the predefined temporal window if a QRS complex has been detected within the predefined temporal window in at least two of the first, second and third sets of ECG data.
A terminal device for use in communicating with a base station in a wireless telecommunications network, the terminal device comprising transceiver circuitry configured to communicate with the wireless telecommunications network and control circuitry configured to control the transceiver circuitry to receive from the base station a system information block containing a list of a plurality of different supported values of a parameter used in the wireless telecommunication network and a location of a further system information block associated with each different value of the parameter; the control circuitry being configured to determine, based on a supported value of the parameter, a further system information block to be used and to control the transceiver circuitry to further retrieve and decode the further system information block to be used only.
A method comprising: introducing a first remedial fluid into a first portion of a subterranean formation, wherein the first remedial fluid comprises a base fluid and a viscosifying agent, wherein the viscosifying agent comprises at least one viscosifying agent selected from the group consisting of a gelling agent and an emulsifier; and allowing the first remedial fluid to divert at least a portion of a second remedial fluid that comprises an oxidizer to a second portion of the subterranean formation; wherein the second remedial fluid is a different composition than the first remedial fluid. introducing a first remedial fluid into a first portion of a subterranean formation, wherein the first remedial fluid comprises a base fluid and a viscosifying agent, wherein the viscosifying agent comprises at least one viscosifying agent selected from the group consisting of a gelling agent and an emulsifier; and allowing the first remedial fluid to divert at least a portion of a second remedial fluid that comprises an oxidizer to a second portion of the subterranean formation; wherein the second remedial fluid is a different composition than the first remedial fluid.
A memory comprising: a control circuit configured to generate a first clock and a second clock in response an edge of a clock for an access cycle; a first input circuit configured to receive an input for a first memory access based on the first clock, wherein the first input circuit includes a latch; and a second input circuit configured to receive an input for a second memory access, the second memory access being after the first memory access, based on the second clock, wherein the second input circuit includes a flip-flop, wherein the first input circuit latches the input for the first memory access in response to a transition of the first clock, and the second input circuit latches the input for the second memory access in response to a transition of the second clock, while the input for the first memory access is latched. a control circuit configured to generate a first clock and a second clock in response an edge of a clock for an access cycle; a first input circuit configured to receive an input for a first memory access based on the first clock, wherein the first input circuit includes a latch; and a second input circuit configured to receive an input for a second memory access, the second memory access being after the first memory access, based on the second clock, wherein the second input circuit includes a flip-flop, wherein the first input circuit latches the input for the first memory access in response to a transition of the first clock, and the second input circuit latches the input for the second memory access in response to a transition of the second clock, while the input for the first memory access is latched. wherein the first input circuit latches the input for the first memory access in response to a transition of the first clock, and the second input circuit latches the input for the second memory access in response to a transition of the second clock, while the input for the first memory access is latched.
An ablation device, the ablation device (700, 1200) comprising a positioning catheter (716, 1204) adapted to be positionable in a heart and comprising a fixation mechanism (714, 1216) for fixing the positioning catheter (716, 1204) in the heart; an ablation catheter (730, 1210) adapted to ablate material of the heart using the ablation catheter (730, 1210); wherein the ablation device (700, 1200) is designed to ablate tissue selectively along an isthmus (244, 740) of the heart; wherein the positioning catheter (716, 1204) and the ablation catheter (730, 1210) are provided to be movable relative to one another; wherein the ablation catheter (730, 1210) can be guided via sleeves (124, 732; 1212, 1214) at the positioning catheter; wherein the positioning catheter (716, 1204) comprises electrodes (720, 1206) configured for recording signals to be analyzed for positioning a slidable ablation element (718, 1202, 800) of the ablation catheter (730, 1210) along the positioning catheter (716, 1204) such that the isthmus (244, 740) can be ablated; wherein the electrodes (720, 1206) are arranged proximal from the fixation mechanism (714, 1216) along a certain extension of the positioning catheter (716, 1204), wherein a portion of the extension is abutable against the isthmus (244, 740); wherein the ablation element (718, 1202, 800) comprises a tubular body defining an inner lumen and receiving an ablation medium from an ablation source; wherein the tubular body is configured to have a spatially varying value of thermal conductivity along a circumference of the tubular body.
Three-dimensional printing system for printing an object from a thermoplastic material reinforced with a continuous electrically conductive fibre filament, the printing system comprising: - a printing bed where a printed material is deposited for forming the object, - a bobbin holding a filament of thermoplastic material reinforced with continuous electrically conductive fibre, - a printing head configured for being fed by the thermoplastic material reinforced with continuous electrically conductive fibre from the bobbin and for depositing the printed material onto the printing bed, - a power supply, - a pair of first and second electrodes (7, 8) connected to the power supply, - the second electrode being electrically connected to the thermoplastic material reinforced with continuous electrically conductive fibre, characterized in that the first electrode is electrically connected to the printing bed, such that an electric circuit is created through the continuous fibre of the thermoplastic material to heat the printed material. - a printing bed where a printed material is deposited for forming the object, - a bobbin holding a filament of thermoplastic material reinforced with continuous electrically conductive fibre, - a printing head configured for being fed by the thermoplastic material reinforced with continuous electrically conductive fibre from the bobbin and for depositing the printed material onto the printing bed, - a power supply, - a pair of first and second electrodes (7, 8) connected to the power supply, - the second electrode being electrically connected to the thermoplastic material reinforced with continuous electrically conductive fibre, characterized in that the first electrode is electrically connected to the printing bed,
A stackable frame rack system for receiving goods, comprising at least one lower frame designed as a welded construction which comprises at least four stanchion holders which essentially extend vertically and are formed by pipe sections and which are connected to each other by means of crossbars welded thereon, at least four tube-shaped stanchions (5, 5') that can be inserted into said stanchion holders, and at least one upper frame designed as a welded construction which can be placed in a positive-locking manner onto the stanchions inserted into the stanchion holders, characterized in that the respective stanchion (5, 5') is provided with a plurality of holes which form four rows of holes extending in the axial direction, wherein the rows of holes are arranged on the outer circumference of the stanchion (5, 5') such that they are offset by 90° with respect to each other, and wherein the holes are slit-shaped and regularly spaced from each other in the respective row of holes, and the holes are arranged such that respectively four holes are placed on the same axial length or the same vertical height of the stanchion, and wherein the frame rack system further comprises wall elements, crossbars and/or floor elements which are provided with fastening means (15, 16) that can be inserted into the holes of the stanchions (5, 5'), and that the lower ends of the stanchion holders are provided with dome-shaped or funnel-shaped foot elements, wherein the respective foot element defines a cavity open at the bottom and is integrally connected to the stanchion holder, and that for stacking two such frame rack systems, while leaving the upper frame of the lower frame rack system off, the second frame rack system can be placed in a positive-locking manner with the foot elements of its lower frame directly onto the upper ends of the stanchions of the lower frame rack system.
A method for decoding direction information from a compressed Higher Order Ambisonics representation, comprising for each frame of the compressed HOA representation - extracting (s91-s93) from the compressed HOA representation a set of candidate directions, wherein each candidate direction is a potential subband signal source direction in at least one subband, for each frequency subband and each of up to D SB potential subband signal source directions a bit (bSubBandDirIsActive(k,f j)) indicating whether or not the potential subband signal source direction is an active subband direction for the respective frequency subband, and relative direction indices (RelDirIndices(k,f j)) of active subband directions and directional subband signal information for each active subband direction; - converting for each frequency subband the relative direction indices (RelDirIndices(k,f j)) to absolute direction indices, wherein each relative direction index is used as an index within the set of candidate directions if said bit (bSubBandDirIsActive(k,f j)) indicates that for the respective frequency subband the candidate direction is an active subband direction; and - predicting directional subband signals from said directional subband signal information, wherein directions are assigned to the directional subband signals according to said absolute direction indices. - extracting (s91-s93) from the compressed HOA representation a set of candidate directions, wherein each candidate direction is a potential subband signal source direction in at least one subband, for each frequency subband and each of up to D SB potential subband signal source directions a bit (bSubBandDirIsActive(k,f j)) indicating whether or not the potential subband signal source direction is an active subband direction for the respective frequency subband, and relative direction indices (RelDirIndices(k,f j)) of active subband directions and directional subband signal information for each active subband direction; - converting for each frequency subband the relative direction indices (RelDirIndices(k,f j)) to absolute direction indices, wherein each relative direction index is used as an index within the set of candidate directions if said bit (bSubBandDirIsActive(k,f j)) indicates that for the respective frequency subband the candidate direction is an active subband direction; and - predicting directional subband signals from said directional subband signal information, wherein directions are assigned to the directional subband signals according to said absolute direction indices.
Process for the combustion of carbonaceous fuels implementing a combustion unit generating combustion fumes further comprising carbon dioxide (CO 2), solid particles and at least one of the impurities chosen among water, nitrogen, oxygen, argon, nitrogen oxides (NOx), including nitrogen monoxide and nitrogen dioxide, as well as sulphur oxides (SOx), including sulphur dioxide, characterised in that the following steps are implemented: a) Filtration of the combustion fumes using a cartridge filter to reach a concentration in solid particles of less than 100 μg/m 3, b) Compression of the combustion fumes filtered in step a), c) Purification of the combustion fumes compressed in step b) for the purpose of removing, at least partially, one of the impurities, and d) Recovery of a CO 2 -enriched gas stream; the cartridge filter being cleaned after filtration with a CO 2 -enriched fluid generated in step b) and/or d). a) Filtration of the combustion fumes using a cartridge filter to reach a concentration in solid particles of less than 100 μg/m 3, b) Compression of the combustion fumes filtered in step a), c) Purification of the combustion fumes compressed in step b) for the purpose of removing, at least partially, one of the impurities, and d) Recovery of a CO 2 -enriched gas stream;
A method of preparing a quaternary ammonium compound, the method comprising reacting (a) a tertiary amine of formula R 1 R 2 R 3 N with (b) an epoxide; in the presence of (c) a compound of formula: wherein R 4 is an optionally substituted alkylene group; n is 0 or a positive integer; C is at least 1; R1, R2, R3 is each independently an optionally substituted alkyl, alkenyl or aryl group; X is a linking group.
A method, comprising: (i) contacting an anode with an aqueous anode electrolyte wherein the aqueous anode electrolyte comprises metal halide and alkali metal or alkaline earth metal halide; contacting a cathode with a cathode electrolyte; separating the anode and the cathode by at least one ion exchange membrane; applying a voltage to the anode and the cathode and oxidizing the metal halide with metal ion in a lower oxidation state to a higher oxidation state at the anode; (ii) halogenating an unsaturated hydrocarbon or a saturated hydrocarbon with the aqueous anode electrolyte comprising the metal halide with the metal ion in the higher oxidation state and the alkali metal or alkaline earth metal halide to result in one or more organic compounds or enantiomers thereof and the metal halide with the metal ion in the lower oxidation state; and (iii) oxyhalogenating the metal halide with the metal ion in the lower oxidation state to the higher oxidation state in presence of an oxidant and the alkali metal or alkaline earth metal halide in the aqueous medium; wherein the step (iii) is in series with the step (i), or the step (i) is in series with the step (iii), wherein the oxidizing, the halogenation and the oxyhalogenating steps are carried out in the aqueous alkali metal halide. (i) contacting an anode with an aqueous anode electrolyte wherein the aqueous anode electrolyte comprises metal halide and alkali metal or alkaline earth metal halide; contacting a cathode with a cathode electrolyte; separating the anode and the cathode by at least one ion exchange membrane; applying a voltage to the anode and the cathode and oxidizing the metal halide with metal ion in a lower oxidation state to a higher oxidation state at the anode; (ii) halogenating an unsaturated hydrocarbon or a saturated hydrocarbon with the aqueous anode electrolyte comprising the metal halide with the metal ion in the higher oxidation state and the alkali metal or alkaline earth metal halide to result in one or more organic compounds or enantiomers thereof and the metal halide with the metal ion in the lower oxidation state; and (iii) oxyhalogenating the metal halide with the metal ion in the lower oxidation state to the higher oxidation state in presence of an oxidant and the alkali metal or alkaline earth metal halide in the aqueous medium; wherein the step (iii) is in series with the step (i), or the step (i) is in series with the step (iii), wherein the oxidizing, the halogenation and the oxyhalogenating steps are carried out in the aqueous alkali metal halide.
A process chamber apparatus including a process chamber having an inlet for continuous gas inlet flow and an outlet for continuous gas outlet flow, a means for controlling process chamber pressure comprising a pressure gauge, a programmable logic controller, and a pulsed valve at, or in fluid communication with, the outlet, the pulsed valve having a controllable pulse rate, the controller programmed to process pressure data from the pressure gauge and to vary the pulse rate of the pulsed valve characterised in that, the pulsed valve is configured in a such manner that the pulse rate of said pulsed valve is varied as gas enters the process chamber through the inlet, based on a difference between a measured process chamber pressure and a programmed pressure, to control the process chamber pressure.
A food composition for use in promoting height growth of children and adolescents in a growth period, comprising a Humulus japonicus extract or a Humulus japonicus crushed product as an active ingredient.
Dowel device for connecting a wall holder of a movable furniture part to a wall element of the movable furniture part, wherein the dowel device comprises a dowel element, a control element and a holding member, wherein the holding member is fixed to the dowel element so as to be rotatable about an axis of rotation, wherein the control element is accommodated within the dowel element and is provided so as to be rotatable relative to the dowel element, wherein the control element has a control curve and the control curve is able to be brought into abutment with the holding member in such a way that, by way of rotation of the control element relative to the dowel element, the holding member is rotatable relative to the dowel element about the axis of rotation, wherein the holding member is provided so as to be rotatable about a holding element, wherein the holding element is of pin-like form, wherein the holding member has a bearing member in the form of a bore, wherein the holding member is movably mounted on the pin-like holding element by means of the bore.