mhurhangee/ep-ind-claims huggingface dataset:
Compositions comprising: a) isocyanurates comprising isocyanate groups and b) benzyl alkyl adipate, where the ratio by weight of a) to b) is in the range of 1:1 to 1:8, preferably of 1:1.2 to 1:4 and particularly preferably of 1:1.5 to 1:2.5. a) isocyanurates comprising isocyanate groups and b) benzyl alkyl adipate,
Device for the spectrally resolved detection of optical radiation during a thermal process, comprising an evaluation device, at least one, in a predefined wavelength range light-sensitive element (4.1, 4.2), a reflective diffraction grating and at least one lens for collimation and/or focusing, wherein the at least one lens is arranged in front of the diffraction grating, and wherein the optical radiation is directed through the at least one lens onto the diffraction grating, is spectrally separated from the diffraction grating and is directed back through the at least one lens onto the at least one light-sensitive element (4.1, 4.2), wherein the device comprises two light-sensitive elements (4.1, 4. 2), each of which is sensitive to a predefined wavelength range that is different from the other light-sensitive element (4.1, 4.2), characterized in that, the device comprises a mirror arranged along the propagation direction of the optical radiation in front of the at least one lens and the diffraction grating, wherein the mirror is a reflecting beam splitter which converts the incident optical radiation into two partial beams (5.1, 5. 2) which are spectrally separated from the diffraction grating and are directed back through the at least one lens onto in each case one of the light-sensitive elements (4.1, 4.2), wherein a first light-sensitive element (4.1) of the two light-sensitive elements (4.1, 4. 2) is sensitive in the visible wavelength range and a second light-sensitive element (4.2) of the two light-sensitive elements (4.1, 4. 2) is sensitive in the near infrared range, and the beam splitter has an arrangement of partially reflecting mirrors (9, 10) which are oriented differently along the beam path of the incident optical beam, wherein each of the partially reflecting mirrors (9, 10) directs a partial beam (5.1, 5.2) of a respective predefined wavelength range of the optical radiation onto a predefined region of the diffraction grating, and wherein at least the partially reflecting mirror arranged at the front in relation to the incident optical radiation is transparent for radiation outside the predefined wavelength range.
Multi-layer component - with a main body which has ceramic layers and two-dimensional inner electrodes (3, 3a, 3b, 3c) in an alternating sequence, and also outer surfaces (5, 5a), wherein - the inner electrodes (3, 3a, 3b, 3c) each have a connecting region and an overlapping region adjacent thereto, and - with outer electrodes (4, 4a) which are separate from each other on the outer surfaces (5, 5a) of the main body, wherein - a rectilinear edge of the connecting region is connected to one of the outer electrodes (4, 4a) in an electrically conductive manner, and - the overlapping region is arranged at distances (6, 6a) from the outer electrodes (4, 4a), - the edge of the connecting region that is connected to the outer electrode (4, 4a) is at least as long as the extent of the overlapping region along straight lines (9, 9a) running parallel to said edge, and - the overlapping region is multiply interrupted at least along a number of said straight lines (9, 9a), characterized in that - the interruptions in the overlapping region increase in the number thereof, in the size thereof or in the number and size thereof with increasing distance from the connecting region. - with a main body which has ceramic layers and two-dimensional inner electrodes (3, 3a, 3b, 3c) in an alternating sequence, and also outer surfaces (5, 5a), wherein - the inner electrodes (3, 3a, 3b, 3c) each have a connecting region and an overlapping region adjacent thereto, and - with outer electrodes (4, 4a) which are separate from each other on the outer surfaces (5, 5a) of the main body, wherein - a rectilinear edge of the connecting region is connected to one of the outer electrodes (4, 4a) in an electrically conductive manner, and - the overlapping region is arranged at distances (6, 6a) from the outer electrodes (4, 4a), - the edge of the connecting region that is connected to the outer electrode (4, 4a) is at least as long as the extent of the overlapping region along straight lines (9, 9a) running parallel to said edge, and - the overlapping region is multiply interrupted at least along a number of said straight lines (9, 9a), - the interruptions in the overlapping region increase in the number thereof, in the size thereof or in the number and size thereof with increasing distance from the connecting region.
A method for preparing a biological sample, comprising the steps of: providing a platform including at least one reactor vessel having one or more hydrophilic surfaces configured for containment of the biological sample, wherein the hydrophilic surfaces have a non-zero, total surface area less than 1 mm 2; wherein the platform comprises a glass chip comprising a substrate containing the at least one reactor vessel, a spacer containing an aperture positioned on the substrate, and a cover positioned on the spacer, wherein the aperture is dimensioned to surround the at least one reactor vessel when the spacer is positioned on the substrate; transferring a first volume of the biological sample to a single reactor vessel, wherein the first volume is a non-zero amount less than 100 nL; processing the biological sample in the single reactor vessel to yield a processed sample, collecting a second volume of the processed sample; and analyzing the collected second volume of processed sample, wherein the analyzing step is configured to identify at least 1,000 unique species within the processed sample, and wherein the analyzing step comprises mass spectrometry or flow cytometry. providing a platform including at least one reactor vessel having one or more hydrophilic surfaces configured for containment of the biological sample, wherein the hydrophilic surfaces have a non-zero, total surface area less than 1 mm 2; wherein the platform comprises a glass chip comprising a substrate containing the at least one reactor vessel, a spacer containing an aperture positioned on the substrate, and a cover positioned on the spacer, wherein the aperture is dimensioned to surround the at least one reactor vessel when the spacer is positioned on the substrate; transferring a first volume of the biological sample to a single reactor vessel, wherein the first volume is a non-zero amount less than 100 nL; processing the biological sample in the single reactor vessel to yield a processed sample, collecting a second volume of the processed sample; and analyzing the collected second volume of processed sample, wherein the analyzing step is configured to identify at least 1,000 unique species within the processed sample, and wherein the analyzing step comprises mass spectrometry or flow cytometry.
Fill level measurement device comprising an antenna assembly for detecting a topology of a filling material surface by sampling the surface by means of an electromagnetic measurement signal, comprising: an arrangement of a plurality of elements which are configured to transmit and/or receive the electromagnetic measurement signal; wherein the distances (302, 303) between adjacent elements are non-equidistant; an evaluation unit; wherein the elements of the antenna assembly comprise a first subgroup of first elements and a second subgroup of second elements; wherein the first elements are at a first distance from one another; wherein the second elements are at a second distance from one another, which is greater than the first distance; characterized in that the evaluation unit is configured to form a first echo curve from the measurement signal detected by the first subgroup at a particular target angle; that the evaluation unit is configured to form a second echo curve from the measurement signal detected by the second subgroup at the particular target angle; that the evaluation unit is configured to establish an envelope function which outlines the minima of the formed echo curves at the target angle; that the evaluation unit is configured to determine a topology point of the filling material surface from the envelope function. an arrangement of a plurality of elements which are configured to transmit and/or receive the electromagnetic measurement signal; wherein the distances (302, 303) between adjacent elements are non-equidistant; an evaluation unit; wherein the elements of the antenna assembly comprise a first subgroup of first elements and a second subgroup of second elements; wherein the first elements are at a first distance from one another; wherein the second elements are at a second distance from one another, which is greater than the first distance; characterized in that the evaluation unit is configured to form a first echo curve from the measurement signal detected by the first subgroup at a particular target angle; that the evaluation unit is configured to form a second echo curve from the measurement signal detected by the second subgroup at the particular target angle; that the evaluation unit is configured to establish an envelope function which outlines the minima of the formed echo curves at the target angle; that the evaluation unit is configured to determine a topology point of the filling material surface from the envelope function.
An assessment method of corpus uteri cancer susceptibility, comprising detecting each DNA copy number in a human chromosomal region consisting of a nucleotide sequence shown in any of SEQ ID NOs: 1 to 7 using a DNA extracted from blood of an individual subjected to assessment and a healthy individual being a control as a test sample, and comparing the copy numbers of both DNAs, wherein when the DNA copy number in the individual subjected to assessment is decreased compared to the DNA copy number in the healthy individual, it is assessed that the corpus uteri cancer susceptibility of the individual subjected to assessment is high.
Method for predicting the quality Q of a video bit stream, the method comprising: Obtaining a video segment and a corresponding bit stream, Parsing the bit stream by a bit stream parser, Obtaining bit stream parameters, Predicting the quality Q by using a parametric model and a machine learning model with the obtained bit stream parameters, wherein the predicted video quality is a weighted sum of the prediction of both models, wherein the machine learning model predicts a residuum of the parametric model, the machine learning model being trained on the difference between the prediction of the parametric model and ground truth data used for the training. Obtaining a video segment and a corresponding bit stream, Parsing the bit stream by a bit stream parser, Obtaining bit stream parameters, Predicting the quality Q by using a parametric model and a machine learning model with the obtained bit stream parameters, wherein the predicted video quality is a weighted sum of the prediction of both models, wherein the machine learning model predicts a residuum of the parametric model, the machine learning model being trained on the difference between the prediction of the parametric model and ground truth data used for the training.
A liquid crystal composition, containing at least one compound selected from the group of compounds represented by formula as a first component, at least one compound selected from the group of compounds represented by formula as a second component and at least one compound selected from the group of compounds represented by formula as a third component: wherein R 1, R 2, R 3 and R 4 are independently alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons or alkenyl having 2 to 12 carbons, or alkenyl having 2 to 12 carbons in which arbitrary hydrogen is replaced by fluorine; R 5 and R 6 are independently alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons or alkenyl having 2 to 12 carbons, or alkenyl having 2 to 12 carbons in which arbitrary hydrogen is replaced by fluorine, acrylate, methacrylate, vinyloxy, propenylether, oxirane, oxetane or vinylketone, and at least one of R 5 and R 6 is acrylate, methacrylate, vinyloxy, propenylether, oxirane, oxetane or vinylketone; ring B and ring C are independently 1,4-cyclohexylene, 1,4-phenylene, 2-fluoro-1,4-phenylene, 3-fluoro-1,4-phenylene or 2,5-difluoro-1,4-phenylene; ring D and ring E are independently 1,4-cyclohexylene, 1,4-phenylene, 2-fluoro-1,4-phenylene, 3-fluoro-1,4-phenylene, 2,3-difluoro-1,4-phenylene, 2,5-difluoro-1,4-phenylene, 3,5-difluoro-1,4-phenylene, 2-methyl-1,4-phenylene, 3-methyl-1,4-phenylene or 2,6-naphthalene; Z 1 is independently a single bond, ethylene, methyleneoxy or carbonyloxy; Z 2 and Z 3 are independently a single bond, alkylene having 1 to 12 carbons, or alkylene having 1 to 12 carbons in which arbitrary -CH 2 - is replaced by -O-; j are independently 1, 2 or 3; and m is 0, 1 or 2.
An apparatus for cancelling a self-interference, SI, signal in a communication system supporting a full-duplex scheme, the apparatus comprising: a multi-path SI estimator (147, 247, 347, 447) configured to estimate an SI channel based on a reception signal; a pre-filtering unit (111, 211, 311, 411) configured to perform a pre-filtering operation on a transmission signal based on the estimated SI channel; analog SI cancellation, SIC, circuits (133, 233, 333, 433) configured to generate copied-SI signals based on the estimated SI channel and the pre-filtered transmission signal; and a digital SIC unit (113, 213, 313, 413) configured to cancel an SI signal based on the copied-SI signals, wherein the pre-filtering operation includes an operation for decreasing a number of SI signals, and wherein the pre-filtering unit is configured to acquire a pre-filter which is time reversal and complex conjugate of the estimated SI channel and is configured to perform the pre-filtering operation on the transmission signal based on the acquired pre-filter. a multi-path SI estimator (147, 247, 347, 447) configured to estimate an SI channel based on a reception signal; a pre-filtering unit (111, 211, 311, 411) configured to perform a pre-filtering operation on a transmission signal based on the estimated SI channel; analog SI cancellation, SIC, circuits (133, 233, 333, 433) configured to generate copied-SI signals based on the estimated SI channel and the pre-filtered transmission signal; and a digital SIC unit (113, 213, 313, 413) configured to cancel an SI signal based on the copied-SI signals, wherein the pre-filtering operation includes an operation for decreasing a number of SI signals, and wherein the pre-filtering unit is configured to acquire a pre-filter which is time reversal and complex conjugate of the estimated SI channel and is configured to perform the pre-filtering operation on the transmission signal based on the acquired pre-filter.
A dialysis device comprising: an arterial blood line for delivering patient blood to a dialyser; a venous blood line for returning dialysed blood from the dialyser to the patient; a controller which controls a dialysate distribution pump (12, 14) for pumping fresh dialysate into the dialyser and spent dialysate out of the dialyser, the dialysate distribution pump having an inlet line for receiving fresh dialysate from a dialysate supply; a pressure sensor (37, 39) in the arterial and/or venous blood line, the sensor operably connected to the controller such that the controller receives a signal from the sensor representative of pressure in the arterial and/or venous blood; wherein, the controller monitors the signal from the sensor in the arterial and/or venous blood line and controls the pressure of the dialysate in the inlet line of the dialysate distribution pump in response to the pressure measured in the arterial and/or venous blood line, wherein the device includes a dialysate supply pump having an outlet fluidically connected to the inlet line of the dialysate distribution pump, the dialysate supply pump being capable of pumping dialysate into the inlet line of the dialysate distribution pump at a predetermined pumping pressure set by the controller in response to the pressure measured in the arterial and/or venous blood line, wherein the dialysate supply pump is a membrane pump having a pump cavity covered by a flexible membrane, wherein the pump is operable by actuation of the membrane, wherein the membrane pump is pneumatically actuable. an arterial blood line for delivering patient blood to a dialyser; a venous blood line for returning dialysed blood from the dialyser to the patient; a controller which controls a dialysate distribution pump (12, 14) for pumping fresh dialysate into the dialyser and spent dialysate out of the dialyser, the dialysate distribution pump having an inlet line for receiving fresh dialysate from a dialysate supply; a pressure sensor (37, 39) in the arterial and/or venous blood line, the sensor operably connected to the controller such that the controller receives a signal from the sensor representative of pressure in the arterial and/or venous blood; wherein, the controller monitors the signal from the sensor in the arterial and/or venous blood line and controls the pressure of the dialysate in the inlet line of the dialysate distribution pump in response to the pressure measured in the arterial and/or venous blood line, wherein the device includes a dialysate supply pump having an outlet fluidically connected to the inlet line of the dialysate distribution pump, the dialysate supply pump being capable of pumping dialysate into the inlet line of the dialysate distribution pump at a predetermined pumping pressure set by the controller in response to the pressure measured in the arterial and/or venous blood line, wherein the dialysate supply pump is a membrane pump having a pump cavity covered by a flexible membrane, wherein the pump is operable by actuation of the membrane, wherein the membrane pump is pneumatically actuable.
A low energy sensor interface for a control system, comprising: a sequencer in operative communicative coupling with one or more on-chip peripherals; a count and compare block in operative communicative coupling with one or more sensors and the sequencer; and a configurable decoder; wherein the configurable decoder defines a programmable state machine; wherein the count and compare block are configured to autonomously collect and analyze sensor results using the on-chip peripherals; and wherein the decoder is configured to determine a state transition from a current state to a next state based on the sensor signals and to initiate a programmable action in response to the state transition from the current state to the next state while in a low energy mode of operation without intervention from a central processing unit. a sequencer in operative communicative coupling with one or more on-chip peripherals; a count and compare block in operative communicative coupling with one or more sensors and the sequencer; and a configurable decoder; wherein the configurable decoder defines a programmable state machine; wherein the count and compare block are configured to autonomously collect and analyze sensor results using the on-chip peripherals; and wherein the decoder is configured to determine a state transition from a current state to a next state based on the sensor signals and to initiate a programmable action in response to the state transition from the current state to the next state while in a low energy mode of operation without intervention from a central processing unit.
A handle for a surgical instrument, wherein the handle comprises a power circuit, comprising: a power source; and a switch; a microcontroller coupled to said power circuit, wherein said microcontroller comprises an output channel, and wherein said output channel is switchable between a powered-up state and a powered-down state; an attachment portion comprising an electrical contact (4001b, 4001c, 4001d, 4001e) in signal communication with said output channel of said microcontroller; and a control circuit in signal communication with said microcontroller, wherein said control circuit comprises a shaft attachment sensor configured to detect an attachment state of said attachment portion, and wherein said control circuit is configured to communicate the detected attachment state to said microcontroller; wherein said microcontroller is configured to switch said output channel from said powered-up state to said powered-down state when said control circuit communicates a detached attachment state to said microcontroller. a power source; and a switch; a microcontroller coupled to said power circuit, wherein said microcontroller comprises an output channel, and wherein said output channel is switchable between a powered-up state and a powered-down state; an attachment portion comprising an electrical contact (4001b, 4001c, 4001d, 4001e) in signal communication with said output channel of said microcontroller; and a control circuit in signal communication with said microcontroller, wherein said control circuit comprises a shaft attachment sensor configured to detect an attachment state of said attachment portion, and wherein said control circuit is configured to communicate the detected attachment state to said microcontroller; wherein said microcontroller is configured to switch said output channel from said powered-up state to said powered-down state when said control circuit communicates a detached attachment state to said microcontroller.
A process for depositing a multi-layers coating stack on a flat glass substrate comprising depositing by sputtering under vacuum at least a first layer in a first depositing zone having a first atmosphere type and at least a second layer in a second depositing zone having a second atmosphere type which is separated from the first atmosphere type by a separation zone, wherein the flat glass substrate moves from the first depositing zone to the second depositing zone through the separation zone along a conveying path in an uninterrupted way, characterised in that a gas is injected into the separation zone in the vicinity of the conveying path in order to increase the separation factor between the two atmosphere types.