mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of oligosaccharides from lignocellulosic biomass, comprising at least the following steps: a) pre-treating the biomass in a pre-treatment reactor in order to provide an effluent containing a pre-treated substrate; b) carrying out an enzymatic hydrolysis of the pre-treated substrate contained in the effluent obtained from step a) in a reactor, in the presence of cellulases in a manner such that a hydrolysate containing glucose, cellulases and water is produced; c) removing at least a portion of the hydrolysate obtained from step b) comprising a liquid fraction; d) reducing the water content of said portion of the hydrolysate removed in step c) in a manner such that the liquid fraction of the hydrolysate has a water content of less than 65% by weight of water with respect to the total weight of the liquid fraction of the hydrolysate; e) incubating the hydrolysate obtained from step d) at a temperature in the range 40°C to 70°C for the time necessary to produce an effluent enriched in oligosaccharides. a) pre-treating the biomass in a pre-treatment reactor in order to provide an effluent containing a pre-treated substrate; b) carrying out an enzymatic hydrolysis of the pre-treated substrate contained in the effluent obtained from step a) in a reactor, in the presence of cellulases in a manner such that a hydrolysate containing glucose, cellulases and water is produced; c) removing at least a portion of the hydrolysate obtained from step b) comprising a liquid fraction; d) reducing the water content of said portion of the hydrolysate removed in step c) in a manner such that the liquid fraction of the hydrolysate has a water content of less than 65% by weight of water with respect to the total weight of the liquid fraction of the hydrolysate; e) incubating the hydrolysate obtained from step d) at a temperature in the range 40°C to 70°C for the time necessary to produce an effluent enriched in oligosaccharides.
Encoder for generating a parametric representation of an audio signal having at least two original left channels (224a, 224b) on a left side and two original right channels (224c, 224d) on a right side with respect to a listening position, comprising: a generator for generating parametric information, the generator being operative to separately process several pairs of channels to derive a level information (230a, 230b, 234) for processed channel pairs, and to derive coherence information for a channel pair including a first channel (228a; 224a, 224b) only having information from the left side and a second channel (228b; 224c, 224d) only having information from the right side; and a provider for providing the parametric representation by selecting the level information (230a, 230b, 234) for channel pairs and by determining a left/right coherence measure using the coherence information and to introduce the left/right coherence measure into an output datastream as the only coherence information of the audio signal within the parametric representation. a generator for generating parametric information, the generator being operative to separately process several pairs of channels to derive a level information (230a, 230b, 234) for processed channel pairs, and to derive coherence information for a channel pair including a first channel (228a; 224a, 224b) only having information from the left side and a second channel (228b; 224c, 224d) only having information from the right side; and a provider for providing the parametric representation by selecting the level information (230a, 230b, 234) for channel pairs and by determining a left/right coherence measure using the coherence information and to introduce the left/right coherence measure into an output datastream as the only coherence information of the audio signal within the parametric representation.
A coating device for the application of a coating mix on a running web, the coating device comprising a coating means, said coating means having: a base unit (2, 21, 63) arranged to be fixated in connection with a running web, a first coating surface and a second coating surface arranged at said coating means and intended for the coating/dosing of said web, wherein the first coating surface and a second coating surface have at least one property that distinguish them from each other, and wherein said first coating surface is arranged to be active in a first operational condition, said second coating surface is arranged to be active in a second operational condition characterised by said second coating surface containing a material that is more sensitive to heat than the other coating surface and by shifting means (40, 22, 31, 32), arranged to switch between said first and second contact surfaces (6, 7) while the coating process is in progress, by moving at least one of said first coating surface and said second coating surface while at least one of said surfaces (6, 7) is in an active contact position with said web. a base unit (2, 21, 63) arranged to be fixated in connection with a running web, a first coating surface and a second coating surface arranged at said coating means and intended for the coating/dosing of said web, wherein the first coating surface and a second coating surface have at least one property that distinguish them from each other, and wherein said first coating surface is arranged to be active in a first operational condition, said second coating surface is arranged to be active in a second operational condition characterised by said second coating surface containing a material that is more sensitive to heat than the other coating surface and by shifting means (40, 22, 31, 32), arranged to switch between said first and second contact surfaces (6, 7) while the coating process is in progress, by moving at least one of said first coating surface and said second coating surface while at least one of said surfaces (6, 7) is in an active contact position with said web.
A vehicle comprising: an electric power source; a motor housing accommodating motors (91a, 91b) for driving wheels; and a power control unit (2, 102, 202) fixed on the motor housing, the power control unit (2, 102, 202) being configured to control drive electric power of the motors (91a, 91b) by using electric power of the electric power source, wherein the power control unit (2, 102, 202) includes reactors (4a, 4b), and a stacked unit in which multiple power modules and multiple coolers are stacked, the multiple power modules accommodating power semiconductor elements for electric power conversion, the stacked unit is arranged such that in a case of the power control unit (2, 102, 202), a stacking direction of the power modules and the coolers is directed toward a longitudinal direction of the vehicle, characterized in that the reactors (4a, 4b) are disposed, in the case, at positions where the reactors (4a, 4b) do not overlap with the stacked unit as viewed from the stacking direction. an electric power source; a motor housing accommodating motors (91a, 91b) for driving wheels; and a power control unit (2, 102, 202) fixed on the motor housing, the power control unit (2, 102, 202) being configured to control drive electric power of the motors (91a, 91b) by using electric power of the electric power source, wherein the power control unit (2, 102, 202) includes reactors (4a, 4b), and a stacked unit in which multiple power modules and multiple coolers are stacked, the multiple power modules accommodating power semiconductor elements for electric power conversion, the stacked unit is arranged such that in a case of the power control unit (2, 102, 202), a stacking direction of the power modules and the coolers is directed toward a longitudinal direction of the vehicle, characterized in that the reactors (4a, 4b) are disposed, in the case, at positions where the reactors (4a, 4b) do not overlap with the stacked unit as viewed from the stacking direction.
Peptide, containing at least one amino acid sequence, which binds to the full-length tau protein, selected from the group consisting of SEQ ID NO: 1 and/or SEQ ID NO: 2, and polymers of SEQ ID NO:1 and/or SEQ ID NO: 2, in which the monomers of the petide to be used are made up of at least 60% D-amino acids.
A vehicle comprising an information processing apparatus for controlling wireless communication performed by the vehicle, the information processing apparatus comprising a controller comprising at least one processor configured to, when detecting a predetermined access point, establish wireless connection with the predetermined access point, wherein, before establishing the wireless connection, the controller is configured to prevent the wireless connection to the predetermined access point at least during a first period from when the vehicle stops until a predetermined timing comes, wherein preventing the wireless connection comprises starting standby for a second wireless connection from a user terminal, wherein the predetermined timing is when the acceptance of the second wireless connection from the user terminal times out; accept the second wireless connection from the user terminal during the first period; perform, when being connected with the user terminal, remote parking control of the vehicle based on an instruction transmitted from the user terminal; determine whether parking of the vehicle has been completed or not; and establish, when determining that the parking of the vehicle has been completed, the wireless connection with the predetermined access point. prevent the wireless connection to the predetermined access point at least during a first period from when the vehicle stops until a predetermined timing comes, wherein preventing the wireless connection comprises starting standby for a second wireless connection from a user terminal, wherein the predetermined timing is when the acceptance of the second wireless connection from the user terminal times out; accept the second wireless connection from the user terminal during the first period; perform, when being connected with the user terminal, remote parking control of the vehicle based on an instruction transmitted from the user terminal; determine whether parking of the vehicle has been completed or not; and establish, when determining that the parking of the vehicle has been completed, the wireless connection with the predetermined access point.
A method for repairing composite components, the method comprising: positioning one or more repair fiber plies relative to a repair interface of a composite component such that a butt joint is formed at the repair interface between the one or more repair fiber plies and the composite component; forming a cavity within the composite component such that the cavity extends through the repair interface; and installing a support member within the cavity, wherein the support member extends across the butt joint such that a first portion of the support member is positioned within the composite component and a second portion of the support member is positioned within the one or more repair fiber plies. positioning one or more repair fiber plies relative to a repair interface of a composite component such that a butt joint is formed at the repair interface between the one or more repair fiber plies and the composite component; forming a cavity within the composite component such that the cavity extends through the repair interface; and installing a support member within the cavity, wherein the support member extends across the butt joint such that a first portion of the support member is positioned within the composite component and a second portion of the support member is positioned within the one or more repair fiber plies.
A method at a receiver (1.7) for requesting a missing packet, said method comprising the steps of: - receiving a list indicating more than one repair server (1.2) and more than one transmission mode being used by said more than one repair server, - receiving from a server a file comprising a plurality of packets, - checking the correct reception of the packets, and - if missing packets have been identified, selecting a repair server amongst the more than one repair server in the received list and a transmission mode amongst the more than one transmission mode used by the selected repair server, and requesting said selected repair server to transmit missing packets using said selected transmission mode. - receiving a list indicating more than one repair server (1.2) and more than one transmission mode being used by said more than one repair server, - receiving from a server a file comprising a plurality of packets, - checking the correct reception of the packets, and - if missing packets have been identified, selecting a repair server amongst the more than one repair server in the received list and a transmission mode amongst the more than one transmission mode used by the selected repair server, and requesting said selected repair server to transmit missing packets using said selected transmission mode.
A user equipment comprising: a higher layer processor configured to acquire a dedicated radio resource control, RRC, configuration for a downlink slot aggregation; a physical downlink control channel, PDCCH, receiving circuitry configured to monitor a PDCCH carrying a downlink control information, DCI, format which schedules a physical downlink shared channel, PDSCH; and a PDSCH receiving circuitry configured to receive the PDSCH; characterized in that whether the PDSCH is a) a PDSCH to which the downlink slot aggregation is applied or b) a PDSCH to which the downlink slot aggregation is not applied is determined based on whether the PDCCH is i) a PDCCH with Cyclic Redundancy Check, CRC, scrambled by a first type of radio network temporary identifier, RNTI, or ii) a PDCCH with CRC scrambled by a second type of RNTI different from the first type of RNTI. a higher layer processor configured to acquire a dedicated radio resource control, RRC, configuration for a downlink slot aggregation; a physical downlink control channel, PDCCH, receiving circuitry configured to monitor a PDCCH carrying a downlink control information, DCI, format which schedules a physical downlink shared channel, PDSCH; and a PDSCH receiving circuitry configured to receive the PDSCH; characterized in that whether the PDSCH is a) a PDSCH to which the downlink slot aggregation is applied or b) a PDSCH to which the downlink slot aggregation is not applied is determined based on whether the PDCCH is i) a PDCCH with Cyclic Redundancy Check, CRC, scrambled by a first type of radio network temporary identifier, RNTI, or ii) a PDCCH with CRC scrambled by a second type of RNTI different from the first type of RNTI.
Temperature-dependent switch, comprising a temperature-dependent switching mechanism and a housing accommodating the switching mechanism, which housing comprises an upper part having a first external connection and a lower part having a second external connection, wherein a first contact surface which is connected to the first external connection is provided on an inner side of the upper part, and a second contact surface which is connected to the second external connection is provided inside the lower part, wherein the switching mechanism comprises a snap-action disc, on which at least one outer contact region and at least one inner contact region are provided, on which inner contact region a movable contact part is held, which interacts with the first contact surface, wherein the at least one outer contact region is mechanically and electrically permanently connected to the second contact surface, and wherein the snap-action disc lifts off the movable contact part from the first contact surface depending on the temperature of the switching mechanism, characterized in that the snap-action disc comprises at least one compensation section (42, 44) between the at least one or each outer contact region and the at least one or each inner contact region, said compensation section being flexible in radial direction.
A method for simultaneously forming and filling a container from a preform with fluid, adjusting a fill point of the fluid, and removing air from within the container, the method comprising: injecting fluid from a fill source into the preform through a nozzle passage to simultaneously form the container from the preform and fill the container; characterized in that the nozzle passage is defined between the nozzle and a seal pin of the forming and filling system; after the container is formed and filled, the seal pin is actuated to close the nozzle passage and prevent fluid and air from exiting the container through the nozzle passage, thereby trapping fluid and air within the container under pressure; and at least one of air, fluid, and foam out is extracted from within the container through a passageway defined within a stretch rod to adjust a fill point of the container. injecting fluid from a fill source into the preform through a nozzle passage to simultaneously form the container from the preform and fill the container; characterized in that the nozzle passage is defined between the nozzle and a seal pin of the forming and filling system; after the container is formed and filled, the seal pin is actuated to close the nozzle passage and prevent fluid and air from exiting the container through the nozzle passage, thereby trapping fluid and air within the container under pressure; and the nozzle passage is defined between the nozzle and a seal pin of the forming and filling system; after the container is formed and filled, the seal pin is actuated to close the nozzle passage and prevent fluid and air from exiting the container through the nozzle passage, thereby trapping fluid and air within the container under pressure; and at least one of air, fluid, and foam out is extracted from within the container through a passageway defined within a stretch rod to adjust a fill point of the container.
A method of affixing an implant analog in a physical model of a patient's mouth having a dental implant installed therein, the physical model being used for creating a custom prosthesis, the method comprising: determining a location for a virtual implant analog in a three-dimensional virtual model of the patient's mouth, the three-dimensional virtual model and the physical model being developed after the dental implant has been installed in the patient's mouth, the determined location for the virtual implant analog in the three-dimensional virtual model corresponding to a position of the dental implant installed in the patient's mouth; developing implant-analog positional information based on the determined location of the virtual implant analog in the three-dimensional virtual model, developing an emergence profile contour information to provide for a contour of an opening to be made in the physical model leading to the implant analog, the contour being tapered downwardly toward the implant analog; transferring to a robot (i) the implant-analog positional information, and (ii) the emergence profile contour information; using the robot to modify the physical model by creating an opening in the physical model having a tapering contour; and affixing, with the robot, the implant analog within the opening of the physical model. determining a location for a virtual implant analog in a three-dimensional virtual model of the patient's mouth, the three-dimensional virtual model and the physical model being developed after the dental implant has been installed in the patient's mouth, the determined location for the virtual implant analog in the three-dimensional virtual model corresponding to a position of the dental implant installed in the patient's mouth; developing implant-analog positional information based on the determined location of the virtual implant analog in the three-dimensional virtual model, developing an emergence profile contour information to provide for a contour of an opening to be made in the physical model leading to the implant analog, the contour being tapered downwardly toward the implant analog; transferring to a robot (i) the implant-analog positional information, and (ii) the emergence profile contour information; using the robot to modify the physical model by creating an opening in the physical model having a tapering contour; and affixing, with the robot, the implant analog within the opening of the physical model.
A composition comprising: a biomarker nanoparticle, wherein the biomarker nanoparticle comprises: a modular structure having a carrier domain linked to a detectable marker; and a thermosensitive liposome incorporating the biomarker nanoparticle; wherein the detectable marker is cleavable by an enzyme and wherein the detectable marker is released from the carrier domain upon deactivation of the thermosensitive liposome and exposure to the enzyme. a biomarker nanoparticle, wherein the biomarker nanoparticle comprises: a modular structure having a carrier domain linked to a detectable marker; and a thermosensitive liposome incorporating the biomarker nanoparticle; wherein the detectable marker is cleavable by an enzyme and wherein the detectable marker is released from the carrier domain upon deactivation of the thermosensitive liposome and exposure to the enzyme.
A feeder in the form of a head feeder for use in a casting mold used for casting metals, comprising a feeder body made from an exothermic and/or insulating material, the feeder body surrounding an inner cavity as a feeder volume, the feeder body having a bottom surface facing a mold cavity formed in the casting mold, the bottom surface having a feeder opening for connection of the inner cavity of the feeder body with the mold cavity of the casting mold during a casting process, wherein a netlike webbing is arranged on the feeder body, the netlike webbing spanning the feeder opening of the feeder body and being made of a fire-resistant material, characterized in that a ring-shaped frame made of a heat-resistant material is secured to the feeder body, the netlike webbing being spanned by the ring-shaped frame in a tensioned manner, wherein the frame is arranged on the surface of the feeder body, such that the netlike webbing is positioned with the feeder formed in the casting mold directly on a surface of a casting piece to be formed during casting.
A method of detecting a presence, location, quality, thickness or cure extent of an organopolysiloxane, the method comprising: applying an organopolysiloxane on a component, wherein the organopolysiloxane includes a hydrochromic pigment; characterized by exciting the hydrochromic pigment with a UV light source, forming an excited hydrochromic pigment; measuring emissions of the excited hydrochromic pigment and determining the presence, location, quality, thickness or cure extent of the organopolysiloxane based on the measured emissions of the excited hydrochromic pigment. applying an organopolysiloxane on a component, wherein the organopolysiloxane includes a hydrochromic pigment; characterized by exciting the hydrochromic pigment with a UV light source, forming an excited hydrochromic pigment; measuring emissions of the excited hydrochromic pigment and determining the presence, location, quality, thickness or cure extent of the organopolysiloxane based on the measured emissions of the excited hydrochromic pigment.