mhurhangee/patent-ind-claim-en huggingface dataset:
A biocompatible mesh composition comprising: a mesh having a multi-layered molecular coating of hyaluronic acids, wherein the primary hydroxyl (-OH) groups of hyaluronic acids are cross-linked with the -OH containing groups on the mesh via a homobifunctional cross-linking agent, and the primary hydroxyl (-OH) groups of hyaluronic acids are also cross-linked to each other via the homobifunctional cross-linking agent.
A preparation method for a fosaprepitant phosphate intermediate (IV), wherein a phosphorylation reaction of aprepitant (I) and a phosphite (II) occurs in a solvent under the action of a haloalkane and a base to obtain the fosaprepitant phosphate intermediate (IV), wherein R 1 and R 2 are independently selected from C1-C7 alkyls or benzyl, preferably methyl, ethyl or benzyl:
A process for manufacturing a timepiece component, wherein a part forming a blank of the timepiece component is produced from a micromachinable material, said part comprising at least one surface having an initial roughness, characterized in that ir comprises the steps of : • providing (E0) a substrate of said micromachinable material; • at least partially covering (E1-E2) the substrate with a protective coating containing at least one aperture; • etching (E3) the substrate through the aperture in the protective coating and thus obtaining an etched surface; • and in that it comprises a step of (E4) of mechanically strengthening treatment of the part by an isotropic etching fluid intended to decrease the roughness of said surface, the mechanically strengthening treatment being applied to said etched surface through the aperture in the protective coating; and in that it comprises then a step consisting of removing (E5) the protective coating. • providing (E0) a substrate of said micromachinable material; • at least partially covering (E1-E2) the substrate with a protective coating containing at least one aperture; • etching (E3) the substrate through the aperture in the protective coating and thus obtaining an etched surface; • and in that it comprises a step of (E4) of mechanically strengthening treatment of the part by an isotropic etching fluid intended to decrease the roughness of said surface, the mechanically strengthening treatment being applied to said etched surface through the aperture in the protective coating; and in that it comprises then a step consisting of removing (E5) the protective coating.
An apparatus , comprising: at least one processor ; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor , cause the apparatus to at least: handle a packet including a header and a payload, wherein handling the packet comprises configuring the header to include an encoding of a set of hops of a path for the packet and an encoding of a common merge point associated with the set of hops of the path and configured to support rerouting of the packet based on a failure on the path. at least one processor ; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor , cause the apparatus to at least: handle a packet including a header and a payload, wherein handling the packet comprises configuring the header to include an encoding of a set of hops of a path for the packet and an encoding of a common merge point associated with the set of hops of the path and configured to support rerouting of the packet based on a failure on the path.
A composition comprising an ethylene-based polymer, the ethylene-based polymer comprising the following properties: a) at least one incorporated structure derived from a polyene, wherein the polyene is an asymmetrical polyene, wherein the asymmetrical polyene is polypropylene glycol allyl ether methacrylate (PPG-AEMA); wherein the ethylene-based polymer comprises ethylene and the asymmetrical polyene as the only monomeric units; and b) a Mw(abs) versus melt index (I 2 ) relationship: Mw(abs) < A + B(I 2 ), where A = 2.40 x 10 5 g/mole, and B = -8.00 x 10 3 (g/mole)/(dg/min); wherein melt index (I 2 ) is measured in accordance with ASTM D1238, Condition 190°C, 2.16 kg. a) at least one incorporated structure derived from a polyene, wherein the polyene is an asymmetrical polyene, wherein the asymmetrical polyene is polypropylene glycol allyl ether methacrylate (PPG-AEMA); wherein the ethylene-based polymer comprises ethylene and the asymmetrical polyene as the only monomeric units; and b) a Mw(abs) versus melt index (I 2 ) relationship: Mw(abs) < A + B(I 2 ), where A = 2.40 x 10 5 g/mole, and B = -8.00 x 10 3 (g/mole)/(dg/min); wherein melt index (I 2 ) is measured in accordance with ASTM D1238, Condition 190°C, 2.16 kg.
A method of wireless communication at a base station, comprising: receiving data to transmit to a user equipment, UE; aggregating the data according to configured control channel configuration parameters of the UE; determining that a link quality or a traffic load for the UE has changed; and reconfiguring control channel configuration parameters of the UE based on at least one of the link quality and the traffic load, wherein the aggregated data for the traffic load is scheduled at a traffic rate based on the link quality and the reconfigured control channel configuration parameters of the UE, wherein reconfiguring the control channel configuration parameters comprises increasing a search space period and decreasing a number of consecutive slots for each monitoring occasion, compared to currently configured control channel configuration parameters in response to determining an increase in the link quality or a decrease in the traffic load and transmitting control information to the UE according to the control channel configuration parameters. receiving data to transmit to a user equipment, UE; aggregating the data according to configured control channel configuration parameters of the UE; determining that a link quality or a traffic load for the UE has changed; and reconfiguring control channel configuration parameters of the UE based on at least one of the link quality and the traffic load, wherein the aggregated data for the traffic load is scheduled at a traffic rate based on the link quality and the reconfigured control channel configuration parameters of the UE, wherein reconfiguring the control channel configuration parameters comprises increasing a search space period and decreasing a number of consecutive slots for each monitoring occasion, compared to currently configured control channel configuration parameters in response to determining an increase in the link quality or a decrease in the traffic load and transmitting control information to the UE according to the control channel configuration parameters.
Industrial truck having a driver's work station which is formed by a driver's platform for a standing operator (P) and is arranged on a drive part (A) of the industrial truck in the longitudinal direction of the industrial truck between a battery compartment for a traction battery and a vertical rear wall of the drive part (A), wherein the driver's platform is suspended on the drive part (A) so as to be movable in a vertical direction by means of a suspension and is supported on the drive part (A) in a sprung and damped manner by means of a spring-damper device , wherein a driver's work station component is suspended on the drive part (A) above the driver's platform so as to be movable in the vertical direction, wherein a coupling mechanism is provided which connects the driver's workstation component to the suspension of the driver's platform in such a manner that the vertical movement of the driver's platform and the vertical movement of the driver's workstation component are coupled, characterized in that the coupling mechanism comprises a lever which is mounted on the drive part (A) at a first connecting point (V1) so as to be pivotable about a transverse axis (QA) and is connected in an articulated manner to the suspension at a second connecting point (V2), and comprises a connecting rod which is connected to the driver's work station component and is connected in an articulated manner to the lever at a third connecting point (V3).
A composition comprising exosomes obtained from human mesenchymal stem cells grown in three-dimensional cell culture comprising three-dimensional collagen scaffolds for use in treating a subject suffering from a traumatic brain injury (TBI).
A glass panel unit comprising: a first panel including a first glass pane ; a second panel including a second glass pane and arranged to face the first panel ; a seal having a frame shape and hermetically bonding respective peripheral edge portions of the first panel and the second panel to create an internal space between the first panel and the second panel ; a connecting void provided for a portion of at least one of the first panel and the second panel ; and an electric wire extended from the internal space to the connecting void by passing through the seal ; wherein the connecting void is at least one through hole (25 or/and 35) provided through at least one of the first panel and the second panel , wherein the internal space includes a first space to be a hermetically sealed space and a second space to be exhaust space, wherein the seal includes a part which has a frame shape and separates the first space from the external environment and a boundary wall that separates the first space from the second space , wherein the through hole (25 or/and 35) being provided for a portion facing the second space of at least one of the first panel and the second panel , and wherein the electric wire being extended from the first space to the through hole (25 or/and 35) by passing through the seal . a first panel including a first glass pane ; a second panel including a second glass pane and arranged to face the first panel ; a seal having a frame shape and hermetically bonding respective peripheral edge portions of the first panel and the second panel to create an internal space between the first panel and the second panel ; a connecting void provided for a portion of at least one of the first panel and the second panel ; and an electric wire extended from the internal space to the connecting void by passing through the seal ; wherein the connecting void is at least one through hole (25 or/and 35) provided through at least one of the first panel and the second panel , wherein the internal space includes a first space to be a hermetically sealed space and a second space to be exhaust space, wherein the seal includes a part which has a frame shape and separates the first space from the external environment and a boundary wall that separates the first space from the second space , wherein the through hole (25 or/and 35) being provided for a portion facing the second space of at least one of the first panel and the second panel , and wherein the electric wire being extended from the first space to the through hole (25 or/and 35) by passing through the seal .
Method for operating a vehicle , having an internal combustion engine , at least one electric motor , a traction battery and a control device , wherein an expected vehicle speed (v) and an expected route profile (x) are used in order to determine a resulting change in a state of charge (SoC) of the traction battery and to define a target value for the state of charge (SoC p ), wherein the target value for the state of charge (SoC p ) is used for driving the electric motor and/or the internal combustion engine , wherein a power (P E ) of the electric motor is at least temporarily kept constant, characterized in that the target value for the state of charge (SoC p ) is limited by a defined upper limit value for the state of charge (SoC max ) and a defined lower limit value for the state of charge (SoC min ) and, when the lower limit value (SoC min ) or upper limit value (SoC max ) is reached by the target value for the state of charge (SoC p ), the power of the electric motor (P E ) is adapted, so that the target value for the state of charge (SoC p ) remains within the limit values (SoC min , SoC max ) and the power of the electric motor (P E ) is adapted in such a way that the target value for the state of charge (SoC p ) is at least temporarily equal to the lower or upper limit value (SoC min , SoC max ). wherein an expected vehicle speed (v) and an expected route profile (x) are used in order to determine a resulting change in a state of charge (SoC) of the traction battery and to define a target value for the state of charge (SoC p ), wherein the target value for the state of charge (SoC p ) is used for driving the electric motor and/or the internal combustion engine , wherein a power (P E ) of the electric motor is at least temporarily kept constant, characterized in that the target value for the state of charge (SoC p ) is limited by a defined upper limit value for the state of charge (SoC max ) and a defined lower limit value for the state of charge (SoC min ) and, when the lower limit value (SoC min ) or upper limit value (SoC max ) is reached by the target value for the state of charge (SoC p ), the power of the electric motor (P E ) is adapted, so that the target value for the state of charge (SoC p ) remains within the limit values (SoC min , SoC max ) and the power of the electric motor (P E ) is adapted in such a way that the target value for the state of charge (SoC p ) is at least temporarily equal to the lower or upper limit value (SoC min , SoC max ).
A process to fabricate fins for an entrainment heat sink driven by compressed air, heat the process comprising: creating an array of micro diameter holes forming micro nozzles on a substrate using one or more of a laser electric discharge machining, sandblasting, an ultrasonic wave, a water jet, chemical etching, and a micro milling machine, wherein the substrate is a metal foil ; coupling the substrate to a mold , the mold comprising angular dimples such that one or more of the micro diameter holes on the substrate come into contact with the angular dimples in the mold to create nozzle orientation, thereby forming an angle between the micro diameter holes and a surface of the substrate, wherein the angular dimples comprise trapezoidal dimples , and wherein the dimple side walls are slanted from 5 to 30 degrees from the vertical to the substrate; and placing the substrate onto a plate, the plate comprising micro air channels such that the micro air channels are in communication with the micro diameter holes, wherein the plate is a metal plate ; wherein the micro-air channels are formed at the interface of the lamination by machining, forming, embossing, or chemical etching trenches on the metal plate, and forming enclosed channels after lamination. creating an array of micro diameter holes forming micro nozzles on a substrate using one or more of a laser electric discharge machining, sandblasting, an ultrasonic wave, a water jet, chemical etching, and a micro milling machine, wherein the substrate is a metal foil ; coupling the substrate to a mold , the mold comprising angular dimples such that one or more of the micro diameter holes on the substrate come into contact with the angular dimples in the mold to create nozzle orientation, thereby forming an angle between the micro diameter holes and a surface of the substrate, wherein the angular dimples comprise trapezoidal dimples , and wherein the dimple side walls are slanted from 5 to 30 degrees from the vertical to the substrate; and
A hydrogel for use in promoting skin regeneration comprising topically administering to a subject with an area of a full thickness skin injury damaging the skin, the hydrogel on at least a portion of the injured area, the hydrogel comprising a crosslinked composition comprising: at least 80% of a polysaccharide with at least one monomer having at least one substituted hydroxyl group, wherein the substituted hydroxyl group has the formula (III): -O 1 -C(O)NR 7 -CH 2 CH=CH 2 (III) wherein O 1 is the oxygen atom of said substituted hydroxyl group, R 7 is hydrogen or C 1 -C 4 alkyl, wherein the degree of substitution of formula (III) on the polysaccharide is less than 0.2, and wherein the polysaccharide is dextran; and up to 20% of a second crosslinkable molecule, thereby promoting skin regeneration in the injured area. wherein O 1 is the oxygen atom of said substituted hydroxyl group, R 7 is hydrogen or C 1 -C 4 alkyl, wherein the degree of substitution of formula (III) on the polysaccharide is less than 0.2, and wherein the polysaccharide is dextran; and up to 20% of a second crosslinkable molecule, thereby promoting skin regeneration in the injured area.
A storage device for a plurality of game pieces associated with an interactive software experience, the storage device comprising: a charging mechanism arranged to charge at least one of the game pieces; an ID collection module arranged to collect IDs of one or more game pieces which are in or on the storage device; and a communication mechanism arranged to transmit the IDs to the interactive software experience via a game piece in the storage device, wherein the storage device is represented by a virtual entity within the interactive software experience. a charging mechanism arranged to charge at least one of the game pieces; an ID collection module arranged to collect IDs of one or more game pieces which are in or on the storage device; and a communication mechanism arranged to transmit the IDs to the interactive software experience via a game piece in the storage device, wherein the storage device is represented by a virtual entity within the interactive software experience.
A method for stray light compensation, the method comprising: acquiring (S502) a first image with a first imaging device covering a first field-of-view; acquiring (S504) a second image with a second imaging device covering a second field-of-view, wherein the second field-of-view is larger than the first field-of-view and wherein the first field-of-view is included in the second field-of-view; and estimating (S506) stray light components in pixels of the first image from pixel data of pixels in the second image; characterized in that estimating (S506) stray light components in pixels of the first image comprises: filtering the second image by a series of gaussian filters forming a series of filtered second images; and linearly combining the filtered second images forming a stray light image comprising stray light components from pixels in the first image, and in that the method further comprises compensating (S508) for stray light in the first image by subtracting the estimated stray light components in pixels of the first image. acquiring (S502) a first image with a first imaging device covering a first field-of-view; acquiring (S504) a second image with a second imaging device covering a second field-of-view, wherein the second field-of-view is larger than the first field-of-view and wherein the first field-of-view is included in the second field-of-view; and estimating (S506) stray light components in pixels of the first image from pixel data of pixels in the second image; characterized in that estimating (S506) stray light components in pixels of the first image comprises: filtering the second image by a series of gaussian filters forming a series of filtered second images; and linearly combining the filtered second images forming a stray light image comprising stray light components from pixels in the first image, and filtering the second image by a series of gaussian filters forming a series of filtered second images; and linearly combining the filtered second images forming a stray light image comprising stray light components from pixels in the first image, and in that the method further comprises compensating (S508) for stray light in the first image by subtracting the estimated stray light components in pixels of the first image.
A breaker valve assembly for a nuclear reactor containment, the breaker valve assembly comprising: a valve body having a generally frustoconical shape, the valve body including, a first side wall defining a chamber, a first opening in a top portion of the first side wall, and a second opening in a bottom portion of the first side wall; a valve insert body nested in the valve body, the valve insert body having a generally frustoconical shape, the valve insert body including, a second side wall defining a second chamber , and a third opening in a bottom portion of the second side wall, the second opening aligning with the third opening of the valve insert body ; and a lid arranged on an upper edge of the second side wall of the valve insert body at a widest portion of the valve insert body, the valve insert body configured to move substantially vertically with respect to the valve body when pressure is applied to the lid. a valve body having a generally frustoconical shape, the valve body including, a first side wall defining a chamber, a first opening in a top portion of the first side wall, and a second opening in a bottom portion of the first side wall; a first side wall defining a chamber, a first opening in a top portion of the first side wall, and a second opening in a bottom portion of the first side wall; a valve insert body nested in the valve body, the valve insert body having a generally frustoconical shape, the valve insert body including, a second side wall defining a second chamber , and a third opening in a bottom portion of the second side wall, the second opening aligning with the third opening of the valve insert body ; and a second side wall defining a second chamber , and a third opening in a bottom portion of the second side wall, the second opening aligning with the third opening of the valve insert body ; and a lid arranged on an upper edge of the second side wall of the valve insert body at a widest portion of the valve insert body, the valve insert body configured to move substantially vertically with respect to the valve body when pressure is applied to the lid.
An apparatus for wireless Vehicle-to-everything, V2X, communication of a vehicle, the apparatus comprising a first V2X communication module configured to provide V2X communication based on a first Radio Access Technology, RAT; a second V2X communication module configured to provide V2X communication based on a second RAT; and a controller configured to select either the first or the second V2X communication module for V2X communication based on a determined country the vehicle is operated in a first V2X communication module configured to provide V2X communication based on a first Radio Access Technology, RAT; a second V2X communication module configured to provide V2X communication based on a second RAT; and a controller configured to select either the first or the second V2X communication module for V2X communication based on a determined country the vehicle is operated in