mhurhangee/ep-ind-claims huggingface dataset:
A polymer-based artificial turf fiber comprising substances adapted for protecting the fiber against UV radiation, the substances comprising: - a hindered amine light stabilizer - HALS; and - a first UV-absorbent substance having a molecular weight smaller than 600 g/mol, the fiber comprising the first UV-absorbent substance by at least 0.05 % of the fiber's weight; and - a second UV-absorbent substance having a molecular weight higher than 800 g/mol, the fiber comprising the second UV-absorbent substance by at least 0.01 %of the fiber's weight. - a hindered amine light stabilizer - HALS; and - a first UV-absorbent substance having a molecular weight smaller than 600 g/mol, the fiber comprising the first UV-absorbent substance by at least 0.05 % of the fiber's weight; and - a second UV-absorbent substance having a molecular weight higher than 800 g/mol, the fiber comprising the second UV-absorbent substance by at least 0.01 %of the fiber's weight.
An isolated antibody that specifically binds to the extracellular domain of zB7H6, wherein the extracellular domain of zB7H6 is located at residues 25-266 of SEQ ID NO: 2; wherein said antibody comprises an Fc region having at least one of ADCC activity and CDC activity.
Device for adaptive muscle stimulation that includes a component for the electromyographic recording of measured values arranged in shoe inserts, an evaluation module and/or controller with storage component and a component for muscle stimulation, whereas the evaluation module and/or controller is designed to define the differences between the electromyographic values and the nominal values stipulated by a predefined nominal value profile and to then control the stimulation of specific foot muscle areas through the muscle stimulating component as well as the evaluation module and/or controller for the retrievable storage of cyclically recorded electromyographic values linked to the storage component.
Cosmetic preparation comprising a) glycyrrhetinic acid, b) 2-ethylhexyl 2-cyano-3,3-diphenylacrylate (octocrylene) and c) one or more perfumes, characterized in that the preparation comprises 2,4-bis-{[4-(2-ethylhexyloxy)-2-hydroxy]phenyl}-6-(4-methoxyphenyl)-1,3,5-triazine (INCI: Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine), 2-phenylbenzimidazole-5-sulfonic acid salts and/or titanium dioxide as further UV filters. a) glycyrrhetinic acid, b) 2-ethylhexyl 2-cyano-3,3-diphenylacrylate (octocrylene) and c) one or more perfumes, characterized in that the preparation comprises 2,4-bis-{[4-(2-ethylhexyloxy)-2-hydroxy]phenyl}-6-(4-methoxyphenyl)-1,3,5-triazine (INCI: Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine), 2-phenylbenzimidazole-5-sulfonic acid salts and/or titanium dioxide as further UV filters.
An on-board telecommunication system, partitioned into a secure area and a non secure area, comprising at least a first telecommunication equipment unit (LRU 1) in the secure area, a second telecommunication equipment unit (LRU 2) in the non secure area, and a first one-way link from the first to the second equipment unit, said first equipment unit being adapted for transmitting data on said first link according to a first protocol, characterized in that it includes a second link from the second (LRU 2) to the first equipment unit (LRU 1), in accordance with a second protocol, the physical and link level layers of which are distinct from those of the first protocol, said second equipment unit (LRU 2) being adapted for transmitting data on the second link as messages in accordance with the first protocol and encapsulated in frames in accordance with the second protocol.
A genetically modified rodent that comprises: a nucleic acid encoding human IL-6 operably linked to an IL-6 promoter, wherein the rodent expresses a human IL-6 polypeptide and does not express a functional native IL-6 polypeptide; a nucleic acid encoding human SIRPa operably linked to a SIRPa promoter randomly integrated into the genome of the rodent; and at least one additional nucleic acid selected from the group consisting of: a nucleic acid encoding human M-CSF operably linked to a M-CSF promoter, wherein the rodent expresses a human M-CSF polypeptide; a nucleic acid encoding human IL-3 operably linked to an IL-3 promoter, wherein the rodent expresses a human IL-3 polypeptide; a nucleic acid encoding human GM-CSF operably linked to a GM-CSF promoter, wherein the rodent expresses a human GM-CSF polypeptide; and a nucleic acid encoding human TPO operably linked to a TPO promoter, wherein the rodent expresses a human TPO polypeptide. a nucleic acid encoding human IL-6 operably linked to an IL-6 promoter, wherein the rodent expresses a human IL-6 polypeptide and does not express a functional native IL-6 polypeptide; a nucleic acid encoding human SIRPa operably linked to a SIRPa promoter randomly integrated into the genome of the rodent; and at least one additional nucleic acid selected from the group consisting of: a nucleic acid encoding human M-CSF operably linked to a M-CSF promoter, wherein the rodent expresses a human M-CSF polypeptide; a nucleic acid encoding human IL-3 operably linked to an IL-3 promoter, wherein the rodent expresses a human IL-3 polypeptide; a nucleic acid encoding human GM-CSF operably linked to a GM-CSF promoter, wherein the rodent expresses a human GM-CSF polypeptide; and a nucleic acid encoding human TPO operably linked to a TPO promoter, wherein the rodent expresses a human TPO polypeptide. a nucleic acid encoding human M-CSF operably linked to a M-CSF promoter, wherein the rodent expresses a human M-CSF polypeptide; a nucleic acid encoding human IL-3 operably linked to an IL-3 promoter, wherein the rodent expresses a human IL-3 polypeptide; a nucleic acid encoding human GM-CSF operably linked to a GM-CSF promoter, wherein the rodent expresses a human GM-CSF polypeptide; and a nucleic acid encoding human TPO operably linked to a TPO promoter, wherein the rodent expresses a human TPO polypeptide.
A robot cleaner comprising: a main body to remove dust from a floor; and at least one side brush assembly provided at the main body, wherein the at least one side brush assembly includes: a side brush body; a side arm mounted to a bottom surface of the side brush body and configured to be exposed outside the main body; and a side brush unit rotatably mounted to the side arm, characterised by a lever connected to the side arm and configured to rotate together with the side arm; a cam configured to rotate by receiving driving force from a driving motor; and an elastic member to connect the lever and the cam in order to rotate the lever by elastic force thereof. a main body to remove dust from a floor; and at least one side brush assembly provided at the main body, wherein the at least one side brush assembly includes: a side brush body; a side arm mounted to a bottom surface of the side brush body and configured to be exposed outside the main body; and a side brush unit rotatably mounted to the side arm, characterised by a lever connected to the side arm and configured to rotate together with the side arm; a cam configured to rotate by receiving driving force from a driving motor; and an elastic member to connect the lever and the cam in order to rotate the lever by elastic force thereof. a side brush body; a side arm mounted to a bottom surface of the side brush body and configured to be exposed outside the main body; and a side brush unit rotatably mounted to the side arm, characterised by a lever connected to the side arm and configured to rotate together with the side arm; a cam configured to rotate by receiving driving force from a driving motor; and an elastic member to connect the lever and the cam in order to rotate the lever by elastic force thereof.
A wireless communication system comprising a wireless communication device and a network node, the wireless communication device operating in an enhanced coverage mode, the enhanced coverage mode comprising sequential repetition of messages sent from the wireless communication device to the network node, wherein the network node includes a transmitter configured to send a Timing Advance Command, TAC, to the wireless communication device; and in that the wireless communication device includes: a receiver configured to receive the TAC from the network node; and a processing circuit configured to adapt a time at which the TAC is applied, fulfilling the condition that a time difference (m) between the time at which the TAC is applied and a time at which the TAC is received (n) is greater than or equal to a specified time (q), said specified time depends on a type of the used Radio Access Technology RAT, and fulfilling the condition that application of the TAC does not occur during a period after a first subframe of a repeated uplink transmission till the end of said repeated uplink transmission; and configured to apply the TAC accordingly. the network node includes a transmitter configured to send a Timing Advance Command, TAC, to the wireless communication device; and in that the wireless communication device includes: a receiver configured to receive the TAC from the network node; and a processing circuit configured to adapt a time at which the TAC is applied, fulfilling the condition that a time difference (m) between the time at which the TAC is applied and a time at which the TAC is received (n) is greater than or equal to a specified time (q), said specified time depends on a type of the used Radio Access Technology RAT, and fulfilling the condition that application of the TAC does not occur during a period after a first subframe of a repeated uplink transmission till the end of said repeated uplink transmission; and configured to apply the TAC accordingly. a receiver configured to receive the TAC from the network node; and a processing circuit configured to adapt a time at which the TAC is applied, fulfilling the condition that a time difference (m) between the time at which the TAC is applied and a time at which the TAC is received (n) is greater than or equal to a specified time (q), said specified time depends on a type of the used Radio Access Technology RAT, and fulfilling the condition that application of the TAC does not occur during a period after a first subframe of a repeated uplink transmission till the end of said repeated uplink transmission; and configured to apply the TAC accordingly.
A display operating electronic device, the device comprising: a display configured to include a flat first output area and a curved second output area; a gravity sensor configured to detect whether the display rotates from a position in landscape mode to a position in portrait mode; and a processor configured: to output an execution screen in the flat first output area and output at least one item in the curved second output area, and to replace the at least one item in the curved second output area with at least one new item in the curved second output area if a predefined amount of rotation is detected, wherein the processor is further configured: to receive a text message associated with a chatting application when the display is in a position in portrait mode; to output, in the curved second output area, an icon related to the chatting application and confirming that the text message is received; and in response to the output of the icon, to output, when it is confirmed that the display rotates from the position in portrait mode to a position in landscape mode, the text message in the curved second output area. a display configured to include a flat first output area and a curved second output area; a gravity sensor configured to detect whether the display rotates from a position in landscape mode to a position in portrait mode; and a processor configured: to output an execution screen in the flat first output area and output at least one item in the curved second output area, and to replace the at least one item in the curved second output area with at least one new item in the curved second output area if a predefined amount of rotation is detected, to output an execution screen in the flat first output area and output at least one item in the curved second output area, and to replace the at least one item in the curved second output area with at least one new item in the curved second output area if a predefined amount of rotation is detected, wherein the processor is further configured: to receive a text message associated with a chatting application when the display is in a position in portrait mode; to output, in the curved second output area, an icon related to the chatting application and confirming that the text message is received; and in response to the output of the icon, to output, when it is confirmed that the display rotates from the position in portrait mode to a position in landscape mode, the text message in the curved second output area. to receive a text message associated with a chatting application when the display is in a position in portrait mode; to output, in the curved second output area, an icon related to the chatting application and confirming that the text message is received; and in response to the output of the icon, to output, when it is confirmed that the display rotates from the position in portrait mode to a position in landscape mode, the text message in the curved second output area.
A method for controlling a trailer driven by an electric motor, comprising the steps: • Defining a distance between the trailer (102, 700) and a towing vehicle as a neutral position, • Measuring a deviation of the distance between the trailer (102, 700) and towing vehicle from the neutral position and outputting this deviation as a distance value, • Electrically-actuated braking of the trailer (102, 700) when the distance between the trailer (102, 700) and the towing vehicle is decreased relative to the neutral position by at least one first distance value, • Mechanically-actuated braking of the trailer (102, 700) independent of the electrically-actuated braking when the distance between the trailer (102, 700) and towing vehicle is decreased relative to the neutral position by at least one second distance value, wherein the second distance value is greater than the first distance value, • Accelerating the trailer (102, 700) by the electric motor (104, 701) when the distance between the trailer (102, 700) and the towing vehicle is increased relative to the neutral position by a third distance value. • Defining a distance between the trailer (102, 700) and a towing vehicle as a neutral position, • Measuring a deviation of the distance between the trailer (102, 700) and towing vehicle from the neutral position and outputting this deviation as a distance value, • Electrically-actuated braking of the trailer (102, 700) when the distance between the trailer (102, 700) and the towing vehicle is decreased relative to the neutral position by at least one first distance value, • Mechanically-actuated braking of the trailer (102, 700) independent of the electrically-actuated braking when the distance between the trailer (102, 700) and towing vehicle is decreased relative to the neutral position by at least one second distance value, wherein the second distance value is greater than the first distance value, • Accelerating the trailer (102, 700) by the electric motor (104, 701) when the distance between the trailer (102, 700) and the towing vehicle is increased relative to the neutral position by a third distance value.
A heat exchanger comprising: - a plurality of flat heat exchange tubes each having an elongated cross section and planar outer surfaces that face each other, the flat heat exchange tubes each including a fluid flow passage therein; and - a plurality of corrugated fins each formed in the shape of waves and provided between associated adjacent ones of the flat heat exchange tubes, each of the corrugated fins having ridge portions that correspond to ridges of the waves and that are joined to the associated flat heat exchange tubes, the corrugated fin having portions that are located between the ridge portions and formed as fins that are arranged in a height direction, the fins having louvers are arranged in the depth direction that is the flow direction of air at the fin, - wherein the fins include respective drain slits each of which allows water on an associated one of the fins to be drained therethrough, the position of the drain slit in the depth direction is set to a position where the drain slit is surrounded by the louvers, characterised in that end portions of the drain slits of adjacent ones of the fins in a horizontal direction are located at different positions in the drain slits, the adjacent fins being adjacent to each other in the height direction. - a plurality of flat heat exchange tubes each having an elongated cross section and planar outer surfaces that face each other, the flat heat exchange tubes each including a fluid flow passage therein; and - a plurality of corrugated fins each formed in the shape of waves and provided between associated adjacent ones of the flat heat exchange tubes, each of the corrugated fins having ridge portions that correspond to ridges of the waves and that are joined to the associated flat heat exchange tubes, the corrugated fin having portions that are located between the ridge portions and formed as fins that are arranged in a height direction, the fins having louvers are arranged in the depth direction that is the flow direction of air at the fin, - wherein the fins include respective drain slits each of which allows water on an associated one of the fins to be drained therethrough, the position of the drain slit in the depth direction is set to a position where the drain slit is surrounded by the louvers, characterised in that end portions of the drain slits of adjacent ones of the fins in a horizontal direction are located at different positions in the drain slits, the adjacent fins being adjacent to each other in the height direction.
A system for detecting analytes of interest present in a gas sample, characterized in that it comprises: - a layer of porous material, positioned at the surface of a substrate so as to extend longitudinally along a fluidic flow path of the gas sample, said porous material containing a plurality of probe molecules, each probe molecule being able to react with the analyte of interest by causing a change in the spectral properties of said probe molecule; - means for generating a flow of the gas sample along the fluidic path, so that the gas sample comes into contact with said layer of porous material; and - at least one optical detection device capable of successively detecting, at distinct detection areas of said porous material layer distributed along said fluidic path, a change in the spectral properties of at least one of said probe molecules, said optical detection device comprising: - at least one excitation light source for successively illuminating said detection areas, - at least one optical collector for receiving at least one light signal from at least one of said probe molecules contained in the successively illuminated detection areas, in response to said corresponding excitation light signal, and - calculation means for calculating a change in the spectral properties of at least one of said probe molecules, from said response light signal received beforehand. - a layer of porous material, positioned at the surface of a substrate so as to extend longitudinally along a fluidic flow path of the gas sample, said porous material containing a plurality of probe molecules, each probe molecule being able to react with the analyte of interest by causing a change in the spectral properties of said probe molecule; - means for generating a flow of the gas sample along the fluidic path, so that the gas sample comes into contact with said layer of porous material; and - at least one optical detection device capable of successively detecting, at distinct detection areas of said porous material layer distributed along said fluidic path, a change in the spectral properties of at least one of said probe molecules, said optical detection device comprising: - at least one excitation light source for successively illuminating said detection areas, - at least one optical collector for receiving at least one light signal from at least one of said probe molecules contained in the successively illuminated detection areas, in response to said corresponding excitation light signal, and - calculation means for calculating a change in the spectral properties of at least one of said probe molecules, from said response light signal received beforehand.
A method for controlling a transmission power, comprising: determining a target number of transmission cycles according to a type of current services of an electronic device, wherein a preset time window is divided into the target number of transmission cycles, and the preset time window is a test cycle used in a specific absorption rate, SAR, test of the electronic device; determining at least one of an upper limit value or a lower limit value of a transmission power corresponding to each transmission cycle, wherein an average value of transmission powers in the preset time window complies with a SAR requirement; and controlling the electronic device to transmit and receive signals using the transmission power corresponding to each transmission cycle in each transmission cycle; wherein determining the target number of transmission cycles according to the type of current services of the electronic device comprises: the greater a number of real-time services comprised in the current services of the electronic device, the greater a value of the target number; or the greater a number of non-real-time services comprised in the current services of the electronic device, the smaller the value of the target number. determining a target number of transmission cycles according to a type of current services of an electronic device, wherein a preset time window is divided into the target number of transmission cycles, and the preset time window is a test cycle used in a specific absorption rate, SAR, test of the electronic device; determining at least one of an upper limit value or a lower limit value of a transmission power corresponding to each transmission cycle, wherein an average value of transmission powers in the preset time window complies with a SAR requirement; and controlling the electronic device to transmit and receive signals using the transmission power corresponding to each transmission cycle in each transmission cycle; wherein determining the target number of transmission cycles according to the type of current services of the electronic device comprises: the greater a number of real-time services comprised in the current services of the electronic device, the greater a value of the target number; or the greater a number of non-real-time services comprised in the current services of the electronic device, the smaller the value of the target number. the greater a number of real-time services comprised in the current services of the electronic device, the greater a value of the target number; or the greater a number of non-real-time services comprised in the current services of the electronic device, the smaller the value of the target number.