mhurhangee/ep-ind-claims huggingface dataset:
A functionalized polymer which comprises at least one covalently bonded Diels-Alder adduct, the Diels-Alder adduct containing a furan component and a cyclic imide component, and the furan component or the cyclic imide component comprising a functional organyl radical whose molar mass is less than 800 g/mol, wherein the functional organyl radical comprises a quaternary ammonium, a carboxylic acid or carboxylate, a sulfonamide, a hydroxyl or an amine group, or is a C 2-22 alkyl radical; the Diels-Alder adduct is bonded covalently via the furan component to the polymer, and the cyclic imide component comprises the functional organyl radical; or the Diels-Alder adduct is bonded covalently via the cyclic imide component to the polymer, and the furan component comprises the functional organyl radical. the functional organyl radical comprises a quaternary ammonium, a carboxylic acid or carboxylate, a sulfonamide, a hydroxyl or an amine group, or is a C 2-22 alkyl radical; the Diels-Alder adduct is bonded covalently via the furan component to the polymer, and the cyclic imide component comprises the functional organyl radical; or the Diels-Alder adduct is bonded covalently via the cyclic imide component to the polymer, and the furan component comprises the functional organyl radical.
An aircraft fuel tank system comprising: at least one fuel tank comprising a number of interconnected bays; and a vent configured to allow an inward venting of atmospheric air, wherein the vent comprises: a vent duct; and a vent box connecting the vent duct via a vent distribution duct; the aircraft fuel tank system comprising a nitrogen-enriched air deposit, said NEA deposit configured to supply NEA to the vent box so as to mix NEA with the inwardly vented atmospheric air in the vent box and provide a mixture of NEA and the inwardly vented atmospheric air; wherein, the system is arranged to direct the mixture along the vent duct which is arranged to convey the mixture to each of the interconnected bays; characterized in that, the vent duct has a substantially closed cross section which either is formed by a first I section stringer of the wing, a second I section stringer of the wing disposed opposite to the first I section stringer, an aircraft wing skin, and a closure surface disposed opposite to the aircraft wing skin, or which is formed by a box shaped stringer of the wing having four sides including a surface opposite an aircraft wing skin, wherein the vent duct includes exit apertures in the surface (68; 74) opposite the aircraft wing skin, wherein the mixture can exit the vent duct via said apertures. at least one fuel tank comprising a number of interconnected bays; and a vent configured to allow an inward venting of atmospheric air, wherein the vent comprises: a vent duct; and a vent box connecting the vent duct via a vent distribution duct; the aircraft fuel tank system comprising a vent duct; and a vent box connecting the vent duct via a vent distribution duct; the aircraft fuel tank system comprising a nitrogen-enriched air deposit, said NEA deposit configured to supply NEA to the vent box so as to mix NEA with the inwardly vented atmospheric air in the vent box and provide a mixture of NEA and the inwardly vented atmospheric air; wherein, the system is arranged to direct the mixture along the vent duct which is arranged to convey the mixture to each of the interconnected bays; characterized in that, the vent duct has a substantially closed cross section which either is formed by a first I section stringer of the wing, a second I section stringer of the wing disposed opposite to the first I section stringer, an aircraft wing skin, and a closure surface disposed opposite to the aircraft wing skin, or which is formed by a box shaped stringer of the wing having four sides including a surface opposite an aircraft wing skin, wherein the vent duct includes exit apertures in the surface (68; 74) opposite the aircraft wing skin, wherein the mixture can exit the vent duct via said apertures.
An isolated antibody or antigen-binding fragment thereof that specifically binds to semaphorin-4D (SEMA4D) and inhibits SEMA4D interaction with its receptor for use in inhibiting, delaying, or reducing malignant cell growth in a subject with cancer, in combination with an effective amount of an epigenetic modulating agent selected from a histone deacetylase (HDAC) inhibitor (HDACi) comprising Chidamide, Belinostat, Valproic acid or a salt thereof, Mocetinostat, Abexinostat, Entinostat, Pracinostat, Resminostat, Givinostat, Quisinostat, Kevetrin, CUDC-101, AR-42, Tefinostat (CHR-2845), CHR-3996, 4SC-202, CG200745, ACY-1215, or ACY-241; a DNA methyltransferase (DNMT) inhibitor (DNMTi); or any combination thereof.
An image display unit comprising: an image display part; a light-transmitting protective part arranged on the image display part, wherein the protective part is formed of plastic, preferably acrylic resin, and a UV-cutting function to protect the display part against UV ray is imparted to the protective part; a cured resin layer arranged between the image display part and the protective part, wherein the protective part is spaced apart from the display part by a spacer having a thickness in the range of from 0.05 mm to 1.5 mm arranged along the periphery of the display part, and the spacer serves to keep the distance between the surfaces of the display part and the protective part at approximately 1 mm; the cured resin layer has a transmittance of 90% or higher in the visible range when formed into a 100 μm-thick layer and a storage modulus at 25 °C of 1 x 10 7 Pa or less, wherein the storage modulus refers to a sample of the cured resin having a thickness of 2 mm, and is measured with a viscoelastometer at a frequency of 1Hz and a temperature of 25°C, wherein the cured resin layer is obtained by curing a resin composition containing polyurethane acrylate and at least one acrylate monomer; and a photopolymerization initiator used together with a photopolymerization initiator that can conduct photo-curing in the visible range, and the resin composition has a cure shrinkage of 5% or less, where the cure shrinkage is determined according to the method outlined in the description. an image display part; a light-transmitting protective part arranged on the image display part, wherein the protective part is formed of plastic, preferably acrylic resin, and a UV-cutting function to protect the display part against UV ray is imparted to the protective part; a cured resin layer arranged between the image display part and the protective part, wherein the protective part is spaced apart from the display part by a spacer having a thickness in the range of from 0.05 mm to 1.5 mm arranged along the periphery of the display part, and the spacer serves to keep the distance between the surfaces of the display part and the protective part at approximately 1 mm; the cured resin layer has a transmittance of 90% or higher in the visible range when formed into a 100 μm-thick layer and a storage modulus at 25 °C of 1 x 10 7 Pa or less, wherein the storage modulus refers to a sample of the cured resin having a thickness of 2 mm, and is measured with a viscoelastometer at a frequency of 1Hz and a temperature of 25°C, wherein the cured resin layer is obtained by curing a resin composition containing polyurethane acrylate and at least one acrylate monomer; and a photopolymerization initiator used together with a photopolymerization initiator that can conduct photo-curing in the visible range, and the resin composition has a cure shrinkage of 5% or less, where the cure shrinkage is determined according to the method outlined in the description.
A method for reducing latency in network connections, the method comprising: receiving at a proxy server device a first redirect message including a first cookie and a first network address from one or more server devices (16 -16(n)) in response to a first request from a client device (14 -14(n)) for a network resource stored on the one or more server devices (16 -16(n)); sending a second request including the first cookie from the proxy server device to the one or more server devices (16 -16(n)) based upon the first network address; receiving at the proxy server device a second redirect message including a second cookie and a second network address from the one or more server devices (16 -16(n)) in response to the second request; sending a third request including the first and second cookies from the proxy server device to the one or more server devices (16 -16(n)) based on the second network address; receiving at the proxy server device a third response including a network resource from the one or more server devices (16 -16(n)) in response to the third request; and sending with the proxy server device a third redirect message to a requesting client device (14 -14(n)), the third redirect message including at least the second network address and first and second cookies included in the first and second redirect messages, respectively. receiving at a proxy server device a first redirect message including a first cookie and a first network address from one or more server devices (16 -16(n)) in response to a first request from a client device (14 -14(n)) for a network resource stored on the one or more server devices (16 -16(n)); sending a second request including the first cookie from the proxy server device to the one or more server devices (16 -16(n)) based upon the first network address; receiving at the proxy server device a second redirect message including a second cookie and a second network address from the one or more server devices (16 -16(n)) in response to the second request; sending a third request including the first and second cookies from the proxy server device to the one or more server devices (16 -16(n)) based on the second network address; receiving at the proxy server device a third response including a network resource from the one or more server devices (16 -16(n)) in response to the third request; and sending with the proxy server device a third redirect message to a requesting client device (14 -14(n)), the third redirect message including at least the second network address and first and second cookies included in the first and second redirect messages, respectively.
An operating unit for an electrical appliance, in particular for a vehicle component such as e.g. a heating, ventilation and/or air conditioning system, comprising - an operating element which can be pressed down in a direction of actuation, - a support element which is mechanically coupled to the operating element and on which the operating element is elastically supported so as to be movable in the direction of actuation, - a sensor for detecting a motion of the operating element when the latter is pressed down, and/or for detecting a force applied to the operating element, - an actuator for moving the operating element, and - an evaluation and drive unit connected to the sensor and to the actuator for driving the actuator upon press-down movement of the operating element and/or application of force onto the operating element as detected by the sensor, - wherein the support element being adapted to be moved by the actuator in at least one direction of movement extending transversely to the direction of actuation of the operating element, characterized in that - the support element is supported on at least two support arms which project upward from an abutment element and are arranged in the extension of the direction of actuation of the operating element, wherein, for movement of the support element by the actuator, the support arms are each on both of their ends connected to the support element and the abutment element in a movable and particularly elastically movable manner. - an operating element which can be pressed down in a direction of actuation, - a support element which is mechanically coupled to the operating element and on which the operating element is elastically supported so as to be movable in the direction of actuation, - a sensor for detecting a motion of the operating element when the latter is pressed down, and/or for detecting a force applied to the operating element, - an actuator for moving the operating element, and - an evaluation and drive unit connected to the sensor and to the actuator for driving the actuator upon press-down movement of the operating element and/or application of force onto the operating element as detected by the sensor, - wherein the support element being adapted to be moved by the actuator in at least one direction of movement extending transversely to the direction of actuation of the operating element, characterized in that - the support element is supported on at least two support arms which project upward from an abutment element and are arranged in the extension of the direction of actuation of the operating element, wherein, for movement of the support element by the actuator, the support arms are each on both of their ends connected to the support element and the abutment element in a movable and particularly elastically movable manner.
A method of wireless communication performed at a user equipment "UE", comprising: receiving configuration information, the configuration information identifying a first set of resources for signal quality measurement and communication, the configuration information further identifying a type of signals on which to perform interference cancellation, wherein the type of signals comprises at least one of a cell-specific reference signal "CRS", a physical downlink shared channel "PDSCH", a physical downlink control channel "PDCCH", and a pysical control format indicator channel "PCFICH", wherein the signal quality measurement corresponds to a measurement of signals received in the first set of resources; receiving at least one cell identifier, each cell identifier corresponding to a cell from which interference should be cancelled; removing, from a received signal, interference received from cells corresponding to one or more of the at least one cell identifier, wherein removal of the interference from the received signal is based on the received configuration information; and transmitting a report, the report comprising a quality measurement of the received signal without the interference in the first set of resources. receiving configuration information, the configuration information identifying a first set of resources for signal quality measurement and communication, the configuration information further identifying a type of signals on which to perform interference cancellation, wherein the type of signals comprises at least one of a cell-specific reference signal "CRS", a physical downlink shared channel "PDSCH", a physical downlink control channel "PDCCH", and a pysical control format indicator channel "PCFICH", wherein the signal quality measurement corresponds to a measurement of signals received in the first set of resources; receiving at least one cell identifier, each cell identifier corresponding to a cell from which interference should be cancelled; removing, from a received signal, interference received from cells corresponding to one or more of the at least one cell identifier, wherein removal of the interference from the received signal is based on the received configuration information; and transmitting a report, the report comprising a quality measurement of the received signal without the interference in the first set of resources.
A controller and a switch for an electric bicycle that generates assist torque by an electric motor, the controller comprising: a control unit that is adapted to supply power to the electric motor according to a signal output from a pedal torque detecting part that is adapted to detect torque input to pedals (33,34), wherein the control unit includes: a smooth power generation part that is adapted to generate power which is smoothed, the period of said smoothed power being longer than the period of the signal output from the pedal torque detecting part, and a boost power generation part that is adapted to generate power in response to a parameter that is changed by a driver's operation when a boost is requested, a variation of said boost power per period of the signal output from the pedal torque detecting part being larger than a variation of the smoothed power per period of the signal, characterized in that the switch is connected to the control unit and operable by a driver to produce a signal indicating a boost request, the parameter that is changed by a driver's operation when a boost is requested is the signal indicating the boost request, and the boost power generation part is adapted to generate power that changes in response to the period of the signal output from the pedal torque detecting part. a control unit that is adapted to supply power to the electric motor according to a signal output from a pedal torque detecting part that is adapted to detect torque input to pedals (33,34), wherein the control unit includes: a smooth power generation part that is adapted to generate power which is smoothed, the period of said smoothed power being longer than the period of the signal output from the pedal torque detecting part, and a boost power generation part that is adapted to generate power in response to a parameter that is changed by a driver's operation when a boost is requested, a variation of said boost power per period of the signal output from the pedal torque detecting part being larger than a variation of the smoothed power per period of the signal, a smooth power generation part that is adapted to generate power which is smoothed, the period of said smoothed power being longer than the period of the signal output from the pedal torque detecting part, and a boost power generation part that is adapted to generate power in response to a parameter that is changed by a driver's operation when a boost is requested, a variation of said boost power per period of the signal output from the pedal torque detecting part being larger than a variation of the smoothed power per period of the signal, characterized in that the switch is connected to the control unit and operable by a driver to produce a signal indicating a boost request, the parameter that is changed by a driver's operation when a boost is requested is the signal indicating the boost request, and the boost power generation part is adapted to generate power that changes in response to the period of the signal output from the pedal torque detecting part.
A composition for use in increasing absorption of iron when ingested by an animal or human, said composition comprising iron and peptides, wherein: (a) the peptides are obtained from enzymatically hydrolyzed salmon backbones and heads; (b) the composition is suitable for human or animal ingestion; and (c) the peptides are greater than 50% of the composition. (a) the peptides are obtained from enzymatically hydrolyzed salmon backbones and heads; (b) the composition is suitable for human or animal ingestion; and (c) the peptides are greater than 50% of the composition.
A wheel service machine, like a tyre changer or a wheel balancer, for servicing a wheel, like a vehicle wheel, comprising: a rotary mounting including a shaft to which the wheel is mounted, a framework for carrying at least the rotary mounting, and a sensing device mounted to the framework, for determining geometrical dimensions of the wheel, or parts of the wheel, the sensing device comprises a carrier element and a first sensing unit for sensing the wheel and computing means for determining the geometrical dimensions of the wheel based on the data received from the sensing device, the first sensing unit being mounted on the carrier element; the wheel service machine further comprises a drive means for enabling a pivotal movement of the sensing device, characterised in that the drive means is a micro stepper motor, the sensing device further comprises a second sensing unit for sensing the angular position of the sensing device, and wherein at least the first sensing unit and the second sensing unit are commonly mounted on the carrier element, wherein the carrier element provides an assembling aid structure for having a defined positional relationship of the components of the sensing device to each other, wherein the carrier element is a housing having a base portion, side walls surrounding at least substantially the base portion, and a coverage covering the housing, and wherein alignment and assembling aid elements are provided at least at the base portion. a rotary mounting including a shaft to which the wheel is mounted, a framework for carrying at least the rotary mounting, and a sensing device mounted to the framework, for determining geometrical dimensions of the wheel, or parts of the wheel, the sensing device comprises a carrier element and a first sensing unit for sensing the wheel and computing means for determining the geometrical dimensions of the wheel based on the data received from the sensing device, the first sensing unit being mounted on the carrier element; the wheel service machine further comprises a drive means for enabling a pivotal movement of the sensing device, characterised in that the drive means is a micro stepper motor, the sensing device further comprises a second sensing unit for sensing the angular position of the sensing device, and wherein at least the first sensing unit and the second sensing unit are commonly mounted on the carrier element, wherein the carrier element provides an assembling aid structure for having a defined positional relationship of the components of the sensing device to each other, wherein the carrier element is a housing having a base portion, side walls surrounding at least substantially the base portion, and a coverage covering the housing, and wherein alignment and assembling aid elements are provided at least at the base portion.