mhurhangee/patent-ind-claim-en huggingface dataset:
A communication system, comprising: a first server having a plurality of user devices (131-134) linked to one another via the first server wherein a media stream is shared among the plurality of user devices, the media stream including at least a first partial media stream and a second partial media stream being different partial versions of the media stream which can be used by one of the user devices to output a lower quality version of the media stream to a user, but which can be combined to output a full-quality version of the media stream to the user, the first server sending, to the plurality of user devices, the first partial media stream; characterized in that the communication system comprises: a second server having the plurality of user devices linked to one another via the second server, the second server sending, to the plurality of user devices, the second partial media stream. a first server having a plurality of user devices (131-134) linked to one another via the first server wherein a media stream is shared among the plurality of user devices, the media stream including at least a first partial media stream and a second partial media stream being different partial versions of the media stream which can be used by one of the user devices to output a lower quality version of the media stream to a user, but which can be combined to output a full-quality version of the media stream to the user, the first server sending, to the plurality of user devices, the first partial media stream; characterized in that the communication system comprises: a second server having the plurality of user devices linked to one another via the second server, the second server sending, to the plurality of user devices, the second partial media stream.
A method for removing one or more thermoset pultrusion elements from a spar cap for a wind turbine blade , the spar cap comprising a plurality of thermoset pultrusion elements wherein each of the thermoset pultrusion elements is at least partially surrounded by a thermoplastic material , the method comprising: heating a portion of thermoplastic material which surrounds, at least in part, a first thermoset pultrusion element ; removing part or all of the heated portion of thermoplastic material ; and removing at least a portion of the first thermoset pultrusion element . heating a portion of thermoplastic material which surrounds, at least in part, a first thermoset pultrusion element ; removing part or all of the heated portion of thermoplastic material ; and removing at least a portion of the first thermoset pultrusion element .
A method of wireless communication performed by a user equipment, UE, comprising: receiving , over a wireless communication network operating in accordance with a first radio access technology, RAT, a configuration to provide at least one positioning state information, PSI, report, the first RAT associated with a first positioning technology, the configuration associated with at least one second RAT and/or at least one second positioning technology, or both to be used to estimate a location of the UE; obtaining , according to the configuration, at least a first set of positioning measurements using the at least one second RAT, the at least one second positioning technology, or both; and transmitting , according to the configuration, the at least one PSI report on physical resources allocated for a physical uplink channel or a physical sidelink channel of the first RAT, the at least one PSI report including at least the first set of positioning measurements. receiving , over a wireless communication network operating in accordance with a first radio access technology, RAT, a configuration to provide at least one positioning state information, PSI, report, the first RAT associated with a first positioning technology, the configuration associated with at least one second RAT and/or at least one second positioning technology, or both to be used to estimate a location of the UE; obtaining , according to the configuration, at least a first set of positioning measurements using the at least one second RAT, the at least one second positioning technology, or both; and transmitting , according to the configuration, the at least one PSI report on physical resources allocated for a physical uplink channel or a physical sidelink channel of the first RAT, the at least one PSI report including at least the first set of positioning measurements.
Device for gripping and holding containers in container treatment systems, comprising a gripper which can be secured to a transport element , which comprises pivotable spring-loaded gripper arms , wherein the gripper comprises catch elements , which can be engaged into corresponding counter-catch elements of the transport element , wherein the gripper can be locked with the transport element in positive fit, and additionally by flexure tension of the spring arms in non-positive fit, wherein the catch elements are configured as spring webs, characterised in that the catch elements are configured as L-shaped, with a transverse web and, arranged at an angle to it, an upright web , and with its transverse web being arranged at a rotating receiver for receiving rotating pins of the pivotable gripper arms , wherein the upright web extends in the direction of a head region of the rotating receiver , and in this situation is oriented with its head part in the direction of the head region of the rotating receiver .
A single pass tangential flow filtration (SPTFF) assembly, comprising: a plurality of processing units that are fluidly connected, wherein each processing unit comprises a cassette holder containing at least one TFF cassette, and wherein the processing units in the assembly are configured for processing in parallel and/or in series; a first channel connected to a feed inlet extending through the plurality of processing units; a second channel connected to a retentate outlet extending through the plurality of processing units; a permeate channel extending through the plurality of processing units; and one or more valves , wherein each valve is located on either the first channel or the second channel between two adjacent processing units, and wherein the valves alternate between the first channel and second channel for consecutive pairs of adjacent processing units; wherein the plurality of processing units are fluidly connected in parallel when the one or more valves are open, or in series when the one or more valves are closed; and wherein the one or more valves are built into the cassette holders. a plurality of processing units that are fluidly connected, wherein each processing unit comprises a cassette holder containing at least one TFF cassette, and wherein the processing units in the assembly are configured for processing in parallel and/or in series; a first channel connected to a feed inlet extending through the plurality of processing units; a second channel connected to a retentate outlet extending through the plurality of processing units; a permeate channel extending through the plurality of processing units; and one or more valves , wherein each valve is located on either the first channel or the second channel between two adjacent processing units, and wherein the valves alternate between the first channel and second channel for consecutive pairs of adjacent processing units;
A modular arrangement system (O) for arranging medical devices, in particular infusion pumps, the modular arrangement system comprising at least two arrangement modules (O1, O2) which can be mechanically connected to one another, wherein a first arrangement module (O1) has a first housing part on which a first coupling structure is provided on at least two diametrically opposed sides, wherein a second arrangement module (O2) has a second housing part which is adapted to be mounted on, below or laterally to the first housing part of the first arrangement module (O1) and comprises a bar rotatably or slidably supported in the second housing part for locking the two housing parts , and wherein each of the at least two arrangement modules (O1, O2) has both the first and the second housing part , and each arrangement module (O1, O2) can be coupled to any further arrangement module (O1, O2), characterized in that the first coupling structure comprises a raster of first protrusions, the bar comprises a second coupling structure having a complementary raster of second protrusions adapted to engage with the first protrusions in an undercutting manner, and the bar is designed in such a way that, by a singular actuation, it engages with the first coupling structure on at least two diametrically opposite sides of the first housing part of the first arrangement module (O1), preferably simultaneously, in an undercutting manner. wherein a first arrangement module (O1) has a first housing part on which a first coupling structure is provided on at least two diametrically opposed sides, wherein a second arrangement module (O2) has a second housing part which is adapted to be mounted on, below or laterally to the first housing part of the first arrangement module (O1) and comprises a bar rotatably or slidably supported in the second housing part for locking the two housing parts , and wherein each of the at least two arrangement modules (O1, O2) has both the first and the second housing part , and each arrangement module (O1, O2) can be coupled to any further arrangement module (O1, O2), characterized in that the first coupling structure comprises a raster of first protrusions, the bar comprises a second coupling structure having a complementary raster of second protrusions adapted to engage with the first protrusions in an undercutting manner, and the bar is designed in such a way that, by a singular actuation, it engages with the first coupling structure on at least two diametrically opposite sides of the first housing part of the first arrangement module (O1), preferably simultaneously, in an undercutting manner.
A micro-fluidic device comprising: a housing comprising an enclosure which includes a flow region and a holding pen opening to said flow region, wherein said flow region comprises a channel , wherein said holding pen comprises a first portion, a second portion, and a wall separating the first portion of the holding pen from the second portion of the holding pen, wherein the first portion and the second portion are laterally arranged side by side, and wherein each of the first portion and the second portion opens to the channel, the wall having a portion of reduced thickness and increased permeability distal to the channel, and thereby being configured to prevent a biological cell disposed in the first portion of the holding pen from contacting a capture object disposed in the second portion of the holding pen while allowing diffusion to occur between the first portion of the holding pen and the second portion of the holding pen. wherein said holding pen comprises a first portion, a second portion, and a wall separating the first portion of the holding pen from the second portion of the holding pen, wherein the first portion and the second portion are laterally arranged side by side, and wherein each of the first portion and the second portion opens to the channel, the wall having a portion of reduced thickness and increased permeability distal to the channel, and thereby being configured to prevent a biological cell disposed in the first portion of the holding pen from contacting a capture object disposed in the second portion of the holding pen while allowing diffusion to occur between the first portion of the holding pen and the second portion of the holding pen.
Assembly forming a mini-oven comprising a mini-oven and a covering member , the mini-oven comprising a cooking cavity accessible from the outside of the oven by an opening , a door able to be moved between a first position, wherein it is possible to access the cooking cavity from the outside of the oven by the opening , and a second position, wherein the door restrains the access to the cooking cavity from the outside of the oven by the opening , and one or more connectors intended to interact with complementary connectors of a covering member intended to be connect to the mini-oven , the covering member comprising one or more connectors used to connect the covering member to one or more complementary connectors of the mini-oven , and - the covering member being constructed and arranged to be able to be connected by sliding to the mini-oven and to form at least one portion of the door when it is connected to the mini-door , or - the covering member being constructed and arranged in such a way that at least one portion of the covering member can be placed between the cooking cavity and the door when the door is in the second position, and the covering member being furthermore constructed and arranged in such a way as to limit the access to the cooking cavity by the opening when it is connected to the mini-over . - the covering member being constructed and arranged to be able to be connected by sliding to the mini-oven and to form at least one portion of the door when it is connected to the mini-door , or - the covering member being constructed and arranged in such a way that at least one portion of the covering member can be placed between the cooking cavity and the door when the door is in the second position, and the covering member being furthermore constructed and arranged in such a way as to limit the access to the cooking cavity by the opening when it is connected to the mini-over .
A method for under-capping glycols for the production of a polyurethane or polyurethaneurea polymer with engineered hard and soft segment molecular weights where the hard segment concentration (HSWT%) is less than 7.8% by weight of the polymer and the soft segment molecular weight to hard segment molecular weight ratio (SSMW/HSMW) is larger than 12.0, said method comprising: (a) adding a diisocyanate to a glycol at a capping ratio of less than 1.5 to produce an under-capped capped glycol; (b) adding additional diisocyanate to the capped glycol; and (c) adding a chain extender to produce the polymer with engineered hard and soft segment molecular weights; wherein the glycol is polytetramethylene ether glycol (PTMEG). (a) adding a diisocyanate to a glycol at a capping ratio of less than 1.5 to produce an under-capped capped glycol; (b) adding additional diisocyanate to the capped glycol; and (c) adding a chain extender to produce the polymer with engineered hard and soft segment molecular weights;
A composition for use in a method of treating liver fluke infections in a mammal in need of such treatment comprising administering the composition comprising an effective amount of diamphenethide in combination with an effective amount of closantel wherein the mammal is sheep, and wherein the liver fluke infection is Fasciola hepatica or Fasciola gigantica. wherein the mammal is sheep, and wherein the liver fluke infection is Fasciola hepatica or Fasciola gigantica.
A cavity filter comprising: a printed circuit board, PCB, substrate comprising a micro band layer; metal layers for grounding, which are arranged on both surfaces of the PCB substrate, having the micro band layer interposed therebetween; a plurality of standard cavity modules which are arranged on the both surfaces of the PCB substrate , in each of which an open side surface is fixed and sealed onto the metal layer; and a plurality of coupling windows , in which, respectively, parts of the metal layers for grounding are removed to expose parts of the PCB substrate, wherein the standard cavity module is fixed onto the metal layers for grounding by soldering, wherein the standard cavity module is a mono-standard cavity module, and the mono-standard cavity module comprises: a cavity body which comprises an opening in an end thereof, the cavity body having a shape of a pipe extending in a direction away from the opening; and a protruding column extending to a cavity resonance space of the cavity body from the other end of the cavity body , which faces the opening of the cavity body, and comprising a screw hole in the center of an end portion of the protruding column . a printed circuit board, PCB, substrate comprising a micro band layer; metal layers for grounding, which are arranged on both surfaces of the PCB substrate, having the micro band layer interposed therebetween; a plurality of standard cavity modules which are arranged on the both surfaces of the PCB substrate , in each of which an open side surface is fixed and sealed onto the metal layer; and a plurality of coupling windows , in which, respectively, parts of the metal layers for grounding are removed to expose parts of the PCB substrate, wherein the standard cavity module is fixed onto the metal layers for grounding by soldering, wherein the standard cavity module is a mono-standard cavity module, and the mono-standard cavity module comprises: a cavity body which comprises an opening in an end thereof, the cavity body having a shape of a pipe extending in a direction away from the opening; and a protruding column extending to a cavity resonance space of the cavity body from the other end of the cavity body , which faces the opening of the cavity body, and comprising a screw hole in the center of an end portion of the protruding column . a cavity body which comprises an opening in an end thereof, the cavity body having a shape of a pipe extending in a direction away from the opening; and a protruding column extending to a cavity resonance space of the cavity body from the other end of the cavity body , which faces the opening of the cavity body, and comprising a screw hole in the center of an end portion of the protruding column .
An envelope tracking arrangement comprising: an IFFT component configured to convert symbols of an input signal from a frequency domain to a time domain; a buffer configured to at least temporally store symbols of the input signal ; a level select component configured to select a chunk length and a chunk level for a chunk of an input signal , wherein the chunk level is one of two or more possible levels of supply voltage, and to provide the chunk levels as a chunk levels signal; a digital pre-distortion (DPD) comprising a plurality of DPD components configured to apply pre-distortions to the symbols of the input signal from the buffer using the selected chunk levels of the chunk levels signal to generate a pre-distorted signal; a mixer configured to mix the pre-distorted signal at a selected frequency to generate a mixed signal; a power amplifier configured to generate a radio frequency (RF) output signal based on the mixed signal using the supply voltage at the selected chunk level for a discrete period of time, wherein the discrete period of time is the selected chunk length; a first multiplexer configured to receive the symbols of the input signal from the buffer and to select a path to a respective DPD component based on the chunk levels signal ; a second multiplexer configured to select a path from a respective DPD component based on the chunk levels signal ; and an IQ DAC configured to process the pre-distorted signal received via the second multiplexer and provide the processed signal to the mixer . an IFFT component configured to convert symbols of an input signal from a frequency domain to a time domain; a buffer configured to at least temporally store symbols of the input signal ; a level select component configured to select a chunk length and a chunk level for a chunk of an input signal , wherein the chunk level is one of two or more possible levels of supply voltage, and to provide the chunk levels as a chunk levels signal; a digital pre-distortion (DPD) comprising a plurality of DPD components configured to apply pre-distortions to the symbols of the input signal from the buffer using the selected chunk levels of the chunk levels signal to generate a pre-distorted signal; a mixer configured to mix the pre-distorted signal at a selected frequency to generate a mixed signal; a power amplifier configured to generate a radio frequency (RF) output signal based on the mixed signal using the supply voltage at the selected chunk level for a discrete period of time, wherein the discrete period of time is the selected chunk length; a first multiplexer configured to receive the symbols of the input signal from the buffer and to select a path to a respective DPD component based on the chunk levels signal ; a second multiplexer configured to select a path from a respective DPD component based on the chunk levels signal ; and an IQ DAC configured to process the pre-distorted signal received via the second multiplexer and provide the processed signal to the mixer .
A method for generating a barcode with an embedded colour palette for colour correction of a captured image in digital format, the method comprising: generating an initial barcode according to a barcode standard or pre-known specification, the initial barcode being formed by a plurality of encoding units each having a predetermined position in the barcode, and the plurality of encoding units including light colour encoding units (108-111) and dark colour encoding units (101-107) jointly encoding a link to a storage location for storing data of the colour palette embedded in the barcode; splitting a predefined set of reference colours for colour correction into a set of reference dark colours (113-119) and a set of reference light colours (120-123) depending on a first contrast threshold; according to one or more predefined replacement criteria, modifying the initial barcode by replacing, for each of at least some of the reference dark colours, a dark colour encoding unit by the reference dark colour, and replacing, for each of at least some of the reference light colours, a light colour encoding unit by the reference light colour; accessing the storage location through the link to the storage location and updating the storage location with data representing the reference colours included in the modified barcode and corresponding positions in the barcode attributed to said reference colours in the modified barcode. generating an initial barcode according to a barcode standard or pre-known specification, the initial barcode being formed by a plurality of encoding units each having a predetermined position in the barcode, and the plurality of encoding units including light colour encoding units (108-111) and dark colour encoding units (101-107) jointly encoding a link to a storage location for storing data of the colour palette embedded in the barcode; splitting a predefined set of reference colours for colour correction into a set of reference dark colours (113-119) and a set of reference light colours (120-123) depending on a first contrast threshold; according to one or more predefined replacement criteria, modifying the initial barcode by replacing, for each of at least some of the reference dark colours, a dark colour encoding unit by the reference dark colour, and replacing, for each of at least some of the reference light colours, a light colour encoding unit by the reference light colour; accessing the storage location through the link to the storage location and updating the storage location with data representing the reference colours included in the modified barcode and corresponding positions in the barcode attributed to said reference colours in the modified barcode.
A genetically modified host cell comprising a heterologous nucleic acid encoding a UDP-glycosyltransferase comprising an amino acid sequence having at least 80%, 85%, 90%, or 95% sequence identity to SEQ ID NO: 1 or SEQ ID NO: 11, wherein the genetically modified host cell is capable of converting RebA to RebD at an efficiency of greater than 90%, 95%, 96%, or 97%.