mhurhangee/patent-ind-claim-en huggingface dataset:
A method for stratifying spermatozoa comprised in a sample obtained from a subject, comprising (a) assaying spermatozoa comprised by said sample for membrane integrity; and (b) assaying spermatozoa comprised by said sample for DNA fragmentation, wherein the stratification allows a prediction whether said subject will have spermatozoa which may be functional, wherein spermatozoa are stratified as follows: (i) membrane non-intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at most about 5 %; (ii) membrane non-intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at least about 1 %; (iii) membrane intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at most about 5 %; (iv) membrane intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at least about 1 %; wherein the percentage of DNA fragmentation index (%DFI) of said sample is between about 4 %DFI to about 75 %DFI, wherein, the presence of spermatozoa pursuant to (iii) is indicative that said subject will have spermatozoa which may be functional, and wherein the presence of spermatozoa pursuant to (i), (ii) and/or (iv) is predictive that said subject will have spermatozoa, which may not be functional. (a) assaying spermatozoa comprised by said sample for membrane integrity; and (b) assaying spermatozoa comprised by said sample for DNA fragmentation, wherein the stratification allows a prediction whether said subject will have spermatozoa which may be functional, wherein spermatozoa are stratified as follows: (i) membrane non-intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at most about 5 %; (ii) membrane non-intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at least about 1 %; (iii) membrane intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at most about 5 %; (iv) membrane intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at least about 1 %; (i) membrane non-intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at most about 5 %; (ii) membrane non-intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at least about 1 %; (iii) membrane intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at most about 5 %; (iv) membrane intact spermatozoa, having a DNA fragmentation index (%DFI) portion of at least about 1 %; wherein the percentage of DNA fragmentation index (%DFI) of said sample is between about 4 %DFI to about 75 %DFI, wherein, the presence of spermatozoa pursuant to (iii) is indicative that said subject will have spermatozoa which may be functional, and wherein the presence of spermatozoa pursuant to (i), (ii) and/or (iv) is predictive that said subject will have spermatozoa, which may not be functional.
A method for animating a communicative utterance comprising: receiving: a String to be animated, the String comprising a plurality of communicative utterance atoms; a plurality of Collections, each Collection including a plurality of Items comprising unique atom strings, each Collection storing Items of different lengths, wherein the Items include part-phoneme strings; and each Item including at least one Animation Snippet of the Item; hierarchically searching the Collections for Items matching substrings of the String; retrieving Animation Snippets for matched Items to cover communicative utterance atoms; and combining the retrieved Animation Snippets to animate the String. receiving: a String to be animated, the String comprising a plurality of communicative utterance atoms; a plurality of Collections, each Collection including a plurality of Items comprising unique atom strings, each Collection storing Items of different lengths, wherein the Items include part-phoneme strings; and each Item including at least one Animation Snippet of the Item; a String to be animated, the String comprising a plurality of communicative utterance atoms; a plurality of Collections, each Collection including a plurality of Items comprising unique atom strings, each Collection storing Items of different lengths, wherein the Items include part-phoneme strings; and each Item including at least one Animation Snippet of the Item; hierarchically searching the Collections for Items matching substrings of the String; retrieving Animation Snippets for matched Items to cover communicative utterance atoms; and combining the retrieved Animation Snippets to animate the String.
Method for operating a fail-safe device of a flame sensor, in particular a hydrogen flame sensor, which comprises at least one optical sensor element , wherein, in at least one first method step, an optical control signal is emitted in the direction of the sensor element , and wherein, in at least one second method step, a functional capability of the flame sensor is inferred on the basis of a signalling correlation between the control signal and a sensor signal tapped off from the sensor element , wherein the control signal is emitted during normal operation of the flame sensor for the purpose of monitoring a flame , wherein, in at least one third method step, if the control signal is unsuccessfully detected in the sensor signal , a switch-off signal for interrupting a flame monitored with the flame sensor is generated, characterized in that that the control signal is generated alternately between at least two signal levels .
An image processing method, wherein the method comprises: displaying , by a terminal, preview images; obtaining, by the terminal, motion data of the terminal; determining, by the terminal based on the motion data, that the terminal is in a stable state; obtaining , by the terminal, at least one first image from the preview images when the terminal is in the stable state; receiving , by the terminal, a photographing instruction; obtaining , by the terminal, at least one second image when receiving the photographing instruction; detecting , by the terminal, a moving target based on the at least one first image and the at least one second image; and splitting , by the terminal, the moving target from the at least one first image and the at least one second image, and performing fusion processing on the at least one first image and the at least one second image after the splitting. displaying , by a terminal, preview images; obtaining, by the terminal, motion data of the terminal; determining, by the terminal based on the motion data, that the terminal is in a stable state; obtaining , by the terminal, at least one first image from the preview images when the terminal is in the stable state; receiving , by the terminal, a photographing instruction; obtaining , by the terminal, at least one second image when receiving the photographing instruction; detecting , by the terminal, a moving target based on the at least one first image and the at least one second image; and splitting , by the terminal, the moving target from the at least one first image and the at least one second image, and performing fusion processing on the at least one first image and the at least one second image after the splitting.
Guide system comprising a hand-held machine tool having a guide element and a guide rail , which can be placed on a ground with its underside and on the top side of which a rail guide surface for a guide element guide surface on the underside of the guide element of the hand-held machine tool is provided, wherein at the guide surfaces at least one longitudinal guide projection and at least one longitudinal guide receptacle are provided, which engage with one another for the longitudinal guidance of the hand-held machine tool along a longitudinal axis (L) of the guide rail and the guide element , and wherein between the guide rail and the guide element there exist engagement-from-behind structures which hold the guide element at the guide rail in a depth direction (T) oriented at an angle, in particular a right angle, at the guide surfaces in such a way that the guide surfaces remain in contact, wherein the engagement-from-behind structures comprise at least one engagement-from-behind projection projecting in front of the rail guide surface for engagement with at least one engagement-from-behind receptacle extending at the guide element guide surface parallel to the longitudinal axis (L), wherein the at least one engagement-from-behind projection extends parallel to the longitudinal axis (L) and/or forms a part of an arrangement of engagement-from-behind projections arranged one behind the other parallel to the longitudinal axis (L) and the at least one engagement-from-behind receptacle extends parallel to the longitudinal axis (L) or forms a part of an arrangement of engagement-from-behind receptacles arranged one behind the other parallel to the longitudinal axis (L), and wherein the at least one engagement-from-behind projection has a support leg projecting in front of the rail guide surface and at least one holding leg projecting at an angle from the support leg for engaging the at least one engagement-from-behind receptacle of the guide element of the hand-held machine tool from behind, characterised in that the at least one engagement-from-behind projection and the at least one engagement-from-behind receptacle are T-shaped or Y-shaped in cross-section or have engagement-from-behind sections and/or dovetail contours which are T-shaped or Y-shaped in cross-section and extend in the direction of the longitudinal axis (L), and/or the at least one engagement-from-behind projection is mushroom-shaped, and/or the at least one engagement-from-behind receptacle has a fork-shaped cross-section, and in that side flanks of the engagement-from-behind projection , which extend parallel to the longitudinal axis (L), and inner flanks of the engagement-from-behind receptacle , which extend parallel to the longitudinal axis (L), are not in a guide contact, in particular not in a touch contact, transversely to the longitudinal axis (L), and/or in that the guide element of the hand-held machine tool is exclusively guided by the longitudinal guide projection and the longitudinal guide receptacle transversely to the longitudinal axis (L).
A method for generating a protected version of an executable digital content, the method comprising: installing at least one check in the digital content, the at least one check comprising at least one device parameter, wherein the at least one check is successfully validated when executed on a client corresponding to the at least one device parameter ; and protecting the digital content including the installed at least one check using the at least one device parameter, thereby, generating the protected version of the digital content , wherein the protecting comprises: encrypting with the at least one device parameter, the digital content containing the installed at least one check ; generating a decryption logic to be used for generating a decryption key at the client based upon the at least one device parameter ; and concatenating the encrypted digital content and the decryption logic thereby wherein the decryption logic is obfuscated, thereby generating the protected version of the digital content . installing at least one check in the digital content, the at least one check comprising at least one device parameter, wherein the at least one check is successfully validated when executed on a client corresponding to the at least one device parameter ; and protecting the digital content including the installed at least one check using the at least one device parameter, thereby, generating the protected version of the digital content , wherein the protecting comprises: encrypting with the at least one device parameter, the digital content containing the installed at least one check ; generating a decryption logic to be used for generating a decryption key at the client based upon the at least one device parameter ; and concatenating the encrypted digital content and the decryption logic thereby wherein the decryption logic is obfuscated, thereby generating the protected version of the digital content . encrypting with the at least one device parameter, the digital content containing the installed at least one check ; generating a decryption logic to be used for generating a decryption key at the client based upon the at least one device parameter ; and concatenating the encrypted digital content and the decryption logic thereby wherein the decryption logic is obfuscated, thereby generating the protected version of the digital content .
A computer implemented method for estimating values of hemodynamic forces acting on plaque or lesions, the method comprising: receiving one or more patient-specific parameters of at least a portion of a patient's vasculature that is prone to plaque progression, rupture, or erosion; constructing a patient-specific geometric model of at least a portion of a patient's vasculature that is prone to plaque progression, rupture, or erosion, using the received one or more patient-specific parameters; measuring, deriving, or obtaining a pressure gradient along one or more points of the patient-specific geometric model; receiving a maximum allowable value of a hemodynamic force at a point of the patient-specific geometric model; estimating, using one or more processors, a value of the hemodynamic force acting at said point on the patient-specific geometric model, using the pressure gradient; comparing the received maximum allowable value of the hemodynamic force and the estimated value of the hemodynamic force acting at said point of the patient-specific geometric model; and outputting, to an electronic storage medium or display, the result of the comparison between the received maximum allowable value of the hemodynamic force and the estimated value of hemodynamic force acting at said point of the patient-specific geometric model. receiving one or more patient-specific parameters of at least a portion of a patient's vasculature that is prone to plaque progression, rupture, or erosion; constructing a patient-specific geometric model of at least a portion of a patient's vasculature that is prone to plaque progression, rupture, or erosion, using the received one or more patient-specific parameters; measuring, deriving, or obtaining a pressure gradient along one or more points of the patient-specific geometric model; receiving a maximum allowable value of a hemodynamic force at a point of the patient-specific geometric model; estimating, using one or more processors, a value of the hemodynamic force acting at said point on the patient-specific geometric model, using the pressure gradient; comparing the received maximum allowable value of the hemodynamic force and the estimated value of the hemodynamic force acting at said point of the patient-specific geometric model; and outputting, to an electronic storage medium or display, the result of the comparison between the received maximum allowable value of the hemodynamic force and the estimated value of hemodynamic force acting at said point of the patient-specific geometric model.
An exposure control device for equipping and/or retrofitting a generative layer-wise building device for a production of at least one three-dimensional object from a building material layer by layer by solidification of the building material by means of a heat supply to positions corresponding to the cross-section of an object in a layer by selectively scanning the layer with electromagnetic radiation or particle radiation , wherein the generative layer-wise building device comprises: an exposure device which emits electromagnetic radiation or particle radiation and is configured to irradiate positions to be solidified in a layer in such a way that after cooling they exist as an object cross-section or part of the object cross-section in the respective layer, wherein the exposure control device has a first data output interface , at which control commands can be output to the exposure device so that it scans, in accordance with the control commands, positions of a layer of the building material with electromagnetic radiation or particle radiation , characterized in that the control commands which are output via the first data output interface specify one of a plurality of exposure types wherein an exposure type is defined by a predetermined combination of a radiation energy density to be emitted by the exposure device and a scanning pattern with which the radiation is being directed to a region of a layer of the building material and the exposure control device has a second data output interface at which an exposure type can be output in real time in relation to a timing of the output of a control command specifying this exposure type, wherein the output of the exposure type takes place within a predetermined period of time before or after the output of the associated control command. an exposure device which emits electromagnetic radiation or particle radiation and is configured to irradiate positions to be solidified in a layer in such a way that after cooling they exist as an object cross-section or part of the object cross-section in the respective layer, wherein the exposure control device has a first data output interface , at which control commands can be output to the exposure device so that it scans, in accordance with the control commands, positions of a layer of the building material with electromagnetic radiation or particle radiation , characterized in that the control commands which are output via the first data output interface specify one of a plurality of exposure types wherein an exposure type is defined by a predetermined combination of a radiation energy density to be emitted by the exposure device and a scanning pattern with which the radiation is being directed to a region of a layer of the building material and the exposure control device has a second data output interface at which an exposure type can be output in real time in relation to a timing of the output of a control command specifying this exposure type, wherein the output of the exposure type takes place within a predetermined period of time before or after the output of the associated control command.
Household refrigerator having a receiving space for groceries, which is bounded by walls of an inner container , and a separating plate which is separate from the inner container and which separates the receiving space into subvolumes and which is detachably arranged in the receiving space in a non-destructive manner, wherein the separating plate is embodied in several parts and has a first, upper plate part and a second, lower plate part separate therefrom and connected to the first plate part , wherein a thermal insulation material is embodied in an intermediate space between the plate parts , characterised in that on one of the plate parts a receiving groove embodied on a side edge of the plate part is embodied with a receiving volume , in which receiving volume a positioning element arranged on the inner container for holding the separating plate engages in an immersing manner on the positioning element , wherein the receiving groove is embodied in a rear corner region of the separating plate and in the width direction (x) of the separating plate is embodied to be open for immersion of the positioning element and in the depth direction (z) is embodied to be open for immersion of the positioning element and both plate parts are embodied to be tub-shaped.
Method for connecting a connection piece to a U-shaped ring beam for a head module for rail vehicles, wherein the head module consists predominantly of fibre-reinforced plastic material and has an outer shell , and the ring beam consists of fibre-reinforced plastic material and is arranged as stiffener in the roof area of the outer shell , having at least the following steps: a) preparing a mould for the outer shell with a section mould for the ring beam , b) preparing a fibre-reinforcing structure of the ring beam which structure is dry or impregnated with matrix material and unconsolidated, and placing it in the section mould, c) preparing a connection piece for each end of the U-shaped ring beam, d) preparing connecting elements , e) feeding the connecting elements through the fibre-reinforcing structure of the ring beam or construction in plies of the fibre-reinforcing structure, wherein each ply is deposited while being penetrated by the connecting elements, f) feeding the connecting elements through the openings of the connection pieces provided for this purpose, g) constructing the outer shell from fibre-reinforcing material and impregnating the fibre-reinforcing material of the outer shell and the ring beam with matrix material, h) jointly consolidating the ring beam and the outer shell , i) fixing the connecting elements such that they are fixed on both sides of the ring beam, including the connection pieces . a) preparing a mould for the outer shell with a section mould for the ring beam , b) preparing a fibre-reinforcing structure of the ring beam which structure is dry or impregnated with matrix material and unconsolidated, and placing it in the section mould, c) preparing a connection piece for each end of the U-shaped ring beam, d) preparing connecting elements , e) feeding the connecting elements through the fibre-reinforcing structure of the ring beam or construction in plies of the fibre-reinforcing structure, wherein each ply is deposited while being penetrated by the connecting elements, f) feeding the connecting elements through the openings of the connection pieces provided for this purpose, g) constructing the outer shell from fibre-reinforcing material and impregnating the fibre-reinforcing material of the outer shell and the ring beam with matrix material, h) jointly consolidating the ring beam and the outer shell , i) fixing the connecting elements such that they are fixed on both sides of the ring beam, including the connection pieces .
An anode composite structure for a lithium-air battery, comprising: a solid electrolyte , below which an anode is disposed; an anode current collector ; an anode layer stacked on the anode current collector , the anode layer being metallic lithium, an alloy containing lithium as a main component, or a chemical compound containing lithium as a main component, wherein the anode layer is stacked on a surface of the anode current collector over a range smaller than an area of the anode current collector and is isolated from and in no direct contact with the solid electrolyte ; and a separator stacked on the anode layer , wherein the anode layer is sealed in by the separator and the anode current collector ; characterized in that the anode composite structure comprises an electron-conducting layer on an inner side of the separator . a solid electrolyte , below which an anode is disposed; an anode current collector ; an anode layer stacked on the anode current collector , the anode layer being metallic lithium, an alloy containing lithium as a main component, or a chemical compound containing lithium as a main component, wherein the anode layer is stacked on a surface of the anode current collector over a range smaller than an area of the anode current collector and is isolated from and in no direct contact with the solid electrolyte ; and a separator stacked on the anode layer , wherein the anode layer is sealed in by the separator and the anode current collector ; characterized in that the anode composite structure comprises an electron-conducting layer on an inner side of the separator .
A peptide having skin-whitening activity, the peptide consisting of the following sequence having ferulic acid moiety bound via its carboxyl group to the N-terminal amine group of Ile of the amino acid sequence of SEQ ID NO: 1: Feruloyl-Ile-Trp-Ser-Leu-Asp-Thr-Gln-Tyr-Gly-Gly-Arg-Gly-Asp-COOH.