mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing draw string bags comprising the steps of: providing a plastic material, extruding the plastic material to a longitudinal tubular foil, cutting longitudinally at least two strips (10, 11) from said tubular foil, thereby providing a U-profiled foil having two legs with an inner side, an outer side and a free cut edge, leading the at least two strips (10, 11) on one of said sides (16, 17) of said legs adjacent the free cut edge, folding the foil adjacent the free cut edges over said strips to form hems and sealing the hems to form tubular channels in which the strips extend, thus forming draw strings, sealing transversely the U-profiled foil to provide a plurality of bags, and subjecting a part of said tubular foil to a reinforcing treatment to provide reinforced strips (10, 11) and thus form reinforced draw strings, wherein said reinforcing treatment comprises any one or more of longitudinally sealing said strips (10, 11) to form tubular draw strings and providing a part of said tubular foil and/or the strips (10, 11) with one or more substantially longitudinal, transversal and/or inclined welds to provide for strengthening of the draw strings. providing a plastic material, extruding the plastic material to a longitudinal tubular foil, cutting longitudinally at least two strips (10, 11) from said tubular foil, thereby providing a U-profiled foil having two legs with an inner side, an outer side and a free cut edge, leading the at least two strips (10, 11) on one of said sides (16, 17) of said legs adjacent the free cut edge, folding the foil adjacent the free cut edges over said strips to form hems and sealing the hems to form tubular channels in which the strips extend, thus forming draw strings, sealing transversely the U-profiled foil to provide a plurality of bags, and subjecting a part of said tubular foil to a reinforcing treatment to provide reinforced strips (10, 11) and thus form reinforced draw strings, wherein said reinforcing treatment comprises any one or more of longitudinally sealing said strips (10, 11) to form tubular draw strings and providing a part of said tubular foil and/or the strips (10, 11) with one or more substantially longitudinal, transversal and/or inclined welds to provide for strengthening of the draw strings.
A method for preparing efinaconazole comprising subjecting 1-[[(2R,3S)-2-(2,4-difluorophenyl)-3-methyloxiranyl]methyl]-1H-1,2,4-triazole to a coupling reaction with 4-methylenepiperidine or an organic chemically acceptable salt thereof in the presence of a base and an ionic liquid compound, wherein the ionic liquid compound is 1-ethyl-3-methylimidazolium ethyl sulfate.
A non-tempered glass panel equipped with an accessory engaged through a hole of this panel and gripping the two opposite faces thereof, wherein said accessory includes two mounting plates assembled to one another with gripping to compress a zone of said panels surrounding the hole and wherein said mounting plates are configured to define a contact zone with a closed contour around all of said hole, the inner edge of which is found in all points at a distance substantially at least equal to a predetermined minimum value from the edge of said hole, defining a gripping zone separated from said hole in said panel.
A two-layer structure colored optical fiber comprising: a glass optical fiber; a primary coating layer coating the glass optical fiber; and a colored secondary coating layer coating the primary coating layer, a surface cure percentage of the colored secondary coating layer being 99% or more at an infrared absorption peak of a wave number of 1407 cm -1, a difference in the surface cure percentage between a portion near a surface of the colored secondary coating layer and a portion near an interface between the primary coating layer and the colored secondary coating layer being 3.0% or less, a surface kinetic friction force in Knot Test of the colored secondary coating layer being less than 0.075 N. a glass optical fiber; a primary coating layer coating the glass optical fiber; and a colored secondary coating layer coating the primary coating layer, a surface cure percentage of the colored secondary coating layer being 99% or more at an infrared absorption peak of a wave number of 1407 cm -1, a difference in the surface cure percentage between a portion near a surface of the colored secondary coating layer and a portion near an interface between the primary coating layer and the colored secondary coating layer being 3.0% or less, a surface kinetic friction force in Knot Test of the colored secondary coating layer being less than 0.075 N.
A method for reducing oxidation in internal combustion engines lubricated with lubricating oil comprising a base oil and an additive amount of at least one additive selected from anti-oxidant, anti-wear, detergent or dispersant by the addition to the lubricating oil of from 0.01 to 5.0 wt% based on the total weight of the lubricating oil of one or more ionic liquid(s) formed of cations and anions joined through an ionic bond wherein the cations are selected from: wherein R 1, R 2, R 3, R 4 and R 5 may be the same or different and are selected from the group consisting of hydrogen, C 1 to C 8 alkyl groups, C 6 to C 10 aryl groups, C 7 to C 12 aralkyl or C 7 to C 12 alkylaryl groups, and mixtures of such cations, and the anions are selected from one or more of the group consisting of tetrafluoroborate, hexafluorophosphate, bis(trifluoromethyl sulfonyl imide, said ionic liquid being premixed with zinc or molybdenum dialkyl dithiophoshate or zinc or molybdenum dialkyl dithiocarbamate in a ratio of 1:10 to 10:1prior to addition to the lubricating oil.
A method of manufacturing the display apparatus, comprising: forming a plurality of light emitting diode chips on a first manufacturing substrate; and transferring at least a portion of the plurality of light emitting diode chips formed on the first manufacturing substrate to a substrate on which a plurality of first and second substrate electrodes are disposed, wherein forming the plurality of light emitting diode chips comprises: forming a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer on the first substrate; exposing a portion of the first conductivity type semiconductor layer; forming first and second electrodes on the first and second conductivity type semiconductor layers, respectively; forming an encapsulant to cover the light emitting structure and the first and second electrodes; and forming first and second bumps electrically connected to the first and second electrodes on the encapsulant, wherein the encapsulant is formed to continuously cover the first manufacturing substrate to be connected to an adjacent light emitting diode chip. forming a plurality of light emitting diode chips on a first manufacturing substrate; and transferring at least a portion of the plurality of light emitting diode chips formed on the first manufacturing substrate to a substrate on which a plurality of first and second substrate electrodes are disposed, wherein forming the plurality of light emitting diode chips comprises: forming a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer on the first substrate; exposing a portion of the first conductivity type semiconductor layer; forming first and second electrodes on the first and second conductivity type semiconductor layers, respectively; forming an encapsulant to cover the light emitting structure and the first and second electrodes; and forming first and second bumps electrically connected to the first and second electrodes on the encapsulant, wherein the encapsulant is formed to continuously cover the first manufacturing substrate to be connected to an adjacent light emitting diode chip. forming a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer on the first substrate; exposing a portion of the first conductivity type semiconductor layer; forming first and second electrodes on the first and second conductivity type semiconductor layers, respectively; forming an encapsulant to cover the light emitting structure and the first and second electrodes; and forming first and second bumps electrically connected to the first and second electrodes on the encapsulant, wherein the encapsulant is formed to continuously cover the first manufacturing substrate to be connected to an adjacent light emitting diode chip.
A computer-implemented method of processing a signal representing a physiological rhythm of a subject, the physiological rhythm having a period characteristic (T, t i), the method comprising: receiving the signal; estimating a first group of period characteristic (T, t i) estimations based on the signal; generating a prior probability (P(θ)) for the period characteristic (T, t i) based on at least a subset of the first group of period characteristic (T, t i) estimations; estimating a second group of period characteristic (T, t i) estimations based on the first group and the prior probability (P(θ)); characterized by determining a spectral likelihood (f S) of at least part of the signal, wherein the spectral likelihood (f S) is representative of a likelihood that the first group of period characteristic (T, t i) estimations corresponding to the at least part of the signal represents the period characteristic (T, t i) of the physiological rhythm, wherein estimating the second group of period characteristic (T, t i) estimations is based on the spectral likelihood (f S) of the signal; defining a localization point in the physiological rhythm, wherein the localization point characterizes a phase in a period of the physiological rhythm; determining a temporal likelihood (f T) of the signal corresponding to the period, wherein the temporal likelihood (f T) is representative of a likelihood that the signal represents the localization point; estimating the localization point based on the spectral likelihood (f S), the temporal likelihood (f T), and the prior probability (P(θ)). receiving the signal; estimating a first group of period characteristic (T, t i) estimations based on the signal; generating a prior probability (P(θ)) for the period characteristic (T, t i) based on at least a subset of the first group of period characteristic (T, t i) estimations; estimating a second group of period characteristic (T, t i) estimations based on the first group and the prior probability (P(θ)); characterized by determining a spectral likelihood (f S) of at least part of the signal, wherein the spectral likelihood (f S) is representative of a likelihood that the first group of period characteristic (T, t i) estimations corresponding to the at least part of the signal represents the period characteristic (T, t i) of the physiological rhythm, wherein estimating the second group of period characteristic (T, t i) estimations is based on the spectral likelihood (f S) of the signal; defining a localization point in the physiological rhythm, wherein the localization point characterizes a phase in a period of the physiological rhythm; determining a temporal likelihood (f T) of the signal corresponding to the period, wherein the temporal likelihood (f T) is representative of a likelihood that the signal represents the localization point; estimating the localization point based on the spectral likelihood (f S), the temporal likelihood (f T), and the prior probability (P(θ)).
A combine harvester with a driver assistance system, wherein a processing stage (2, 6) of the combine harvester has an inlet for a flow of harvested material, a first outlet for a flow of crop which is obtained from the flow of harvested material and which is rich in threshed grain, and a second outlet for a residual flow which is depleted in grain, wherein at least one operating parameter of the processing stage can be adjusted, wherein the driver assistance system comprises: an activatable rethreshing device for attachment at the second outlet of the processing stage (2, 6), a residual grain sensor for detecting a proportion of threshed grain in the residual flow downstream of the rethreshing device, characterized in that the driver assistance system comprises: an evaluation device which is configured to switch the rethreshing device on and off, to compare the proportions of threshed grain in the residual flow when the rethreshing device is switched on and when it is switched off, and to adjust the at least one operating parameter of the processing stage on the basis of the comparison. an activatable rethreshing device for attachment at the second outlet of the processing stage (2, 6), a residual grain sensor for detecting a proportion of threshed grain in the residual flow downstream of the rethreshing device, characterized in that the driver assistance system comprises: an evaluation device which is configured to switch the rethreshing device on and off, to compare the proportions of threshed grain in the residual flow when the rethreshing device is switched on and when it is switched off, and to adjust the at least one operating parameter of the processing stage on the basis of the comparison.
A recording apparatus (250, 250a, 250b) comprising: a recording head (160, 160a) configured to eject liquid containing scattering particles; a light source configured to emit light; an irradiation optical device configured to irradiate the recording head (160, 160a) with an irradiation light being at least a part of the light emitted from the light source; characterized by a coupling optical device configured to couple reflected or scattered light with reference light to form a coupled light, the reflected or scattered light being light obtained by reflecting or scattering the irradiation light by the liquid inside the recording head (160, 160a), the reference light being at least a part of the light emitted from the light source and not reflected or scattered by the liquid inside the recording head (160, 160a); a detector configured to detect the coupled light formed by the coupling optical device; and an arithmetic device configured to acquire an optical interference tomographic image of the inside of the liquid inside the recording head (160, 160a) based on the coupled light. a recording head (160, 160a) configured to eject liquid containing scattering particles; a light source configured to emit light; an irradiation optical device configured to irradiate the recording head (160, 160a) with an irradiation light being at least a part of the light emitted from the light source; characterized by a coupling optical device configured to couple reflected or scattered light with reference light to form a coupled light, the reflected or scattered light being light obtained by reflecting or scattering the irradiation light by the liquid inside the recording head (160, 160a), the reference light being at least a part of the light emitted from the light source and not reflected or scattered by the liquid inside the recording head (160, 160a); a detector configured to detect the coupled light formed by the coupling optical device; and an arithmetic device configured to acquire an optical interference tomographic image of the inside of the liquid inside the recording head (160, 160a) based on the coupled light.
A combined garment and earphones (22a, 22b) comprising: a garment having a hood adapted for being worn over a user's head, the hood including a hood channel for cinching; a combination lanyard portion and wiring assembly comprising; a lanyard portion (36a, 36b) comprising a hollow left lanyard element and a hollow right lanyard element each extending from an entry end inside the hood channel to an outside end outside the hood channel; an earphone wiring assembly comprising left and right earphones (22a, 22b) and left and right earphone wires (14a', 14b'), the left and right earphone wires (14a', 14b') entering the lanyard portion (36a, 36b) inside the hood channel and extending respectively inside the left lanyard element and the right lanyard element and exiting the outside end of the respective lanyard element (36a, 36b) and extending a distance outside its respective lanyard element (36a, 36b) and terminating at the left and right earphones (22a, 22b); the outside end of each lanyard element (36a, 36b) and the wire (14a', 14b') extending beyond the outside end of each lanyard element (36a, 36b) being secured together at a point at the outside end of each lanyard element (36a, 36b) to prevent any relative movement of the wire (14a', 14b') and the lanyard element (36a, 36b) at the point at which they are secured together and the wire (14a', 14b') in each lanyard element (36a, 36b) having slack within the respective lanyard element (36a, 36b). a garment having a hood adapted for being worn over a user's head, the hood including a hood channel for cinching; a combination lanyard portion and wiring assembly comprising; a lanyard portion (36a, 36b) comprising a hollow left lanyard element and a hollow right lanyard element each extending from an entry end inside the hood channel to an outside end outside the hood channel; an earphone wiring assembly comprising left and right earphones (22a, 22b) and left and right earphone wires (14a', 14b'), the left and right earphone wires (14a', 14b') entering the lanyard portion (36a, 36b) inside the hood channel and extending respectively inside the left lanyard element and the right lanyard element and exiting the outside end of the respective lanyard element (36a, 36b) and extending a distance outside its respective lanyard element (36a, 36b) and terminating at the left and right earphones (22a, 22b); the outside end of each lanyard element (36a, 36b) and the wire (14a', 14b') extending beyond the outside end of each lanyard element (36a, 36b) being secured together at a point at the outside end of each lanyard element (36a, 36b) to prevent any relative movement of the wire (14a', 14b') and the lanyard element (36a, 36b) at the point at which they are secured together and the wire (14a', 14b') in each lanyard element (36a, 36b) having slack within the respective lanyard element (36a, 36b).
Dressing (11, 17, 21, 28) for treating a wound, comprising - an absorbent SAP-containing wound pad, wherein the wound pad has a first side facing the wound and a second side facing away from the wound, - an elastic sleeve for holding the wound pad in place, wherein the sleeve has a first open end, a second open end, an inner side facing the wound and an outer side facing away from the wound, characterized in that the second side of the wound pad is fixed in an undetachable manner to the inner side of the sleeve such that the second side of the wound pad is completely covered by the inner side of the sleeve. - an absorbent SAP-containing wound pad, wherein the wound pad has a first side facing the wound and a second side facing away from the wound, - an elastic sleeve for holding the wound pad in place, wherein the sleeve has a first open end, a second open end, an inner side facing the wound and an outer side facing away from the wound,
A method of broadcasting a content by streaming in a peer-to-peer network of client devices (11, 12, 13) which is connected to a content server, said content consisting of a sequence of segments stored in data storage means of the content server, each client device (11, 12, 13) comprising a buffer storing in a temporary manner at least one segment of said content, the method being characterised in that each client device (11, 12, 13) is associated with a level, the client devices (11, 12, 13, 14) being classified in L levels, each level k ∈ 〚 1, L 〛 defining a minimum list of segments of the content corresponding to a minimum duration t k of the content, that have to be stored by the buffer of the device (11, 12, 13), the minimum lists increasing with the level k, the method comprising steps of: (a) connecting a new client device to the peer-to-peer network; (b) assigning a level to the new client device as a function of the number of client devices (11, 12, 13) associated with each level; (c) transmitting to said new client device from the server at least each segment of the content which is absent from the buffer of the new client device, which belongs to said list of segments of the content corresponding to the level assigned to the new client device. (a) connecting a new client device to the peer-to-peer network; (b) assigning a level to the new client device as a function of the number of client devices (11, 12, 13) associated with each level; (c) transmitting to said new client device from the server at least each segment of the content which is absent from the buffer of the new client device, which belongs to said list of segments of the content corresponding to the level assigned to the new client device.
A system comprising: a user authentication module of a communication device comprising at least one hardware processor that: accesses user data determined by the communication device for a user in possession of the communication device, accesses authentication profiles for the communication device, wherein each of the authentication profiles allows access to at least one process executed by the communication device, and wherein the authentication profiles each comprise a plurality of authentication pathways, each authentication pathway requiring different user data, determines at least one matching profile using the user data and at least one of the authentication profiles based on the user data matching user data required for one of the plurality of authentication pathways, and provides access to at least one process associated with the at least one matching profile; a database stored to a non-transitory memory that stores the authentication profiles and the user data; and at least one device component that determines the user data; wherein the user authentication module determines the plurality of authentication pathways for the authentication profiles based on capabilities of a data collection component of the communication device. a user authentication module of a communication device comprising at least one hardware processor that: accesses user data determined by the communication device for a user in possession of the communication device, accesses authentication profiles for the communication device, accesses user data determined by the communication device for a user in possession of the communication device, accesses authentication profiles for the communication device, wherein each of the authentication profiles allows access to at least one process executed by the communication device, and wherein the authentication profiles each comprise a plurality of authentication pathways, each authentication pathway requiring different user data, determines at least one matching profile using the user data and at least one of the authentication profiles based on the user data matching user data required for one of the plurality of authentication pathways, and provides access to at least one process associated with the at least one matching profile; determines at least one matching profile using the user data and at least one of the authentication profiles based on the user data matching user data required for one of the plurality of authentication pathways, and provides access to at least one process associated with the at least one matching profile; a database stored to a non-transitory memory that stores the authentication profiles and the user data; and at least one device component that determines the user data; wherein the user authentication module determines the plurality of authentication pathways for the authentication profiles based on capabilities of a data collection component of the communication device.