mhurhangee/patent-ind-claim-en huggingface dataset:
A process of conjugation of a carbohydrate, polysaccharide, oligosaccharide, or combination thereof comprising: mixing 1-cyano-4-pyrrolidinopyridinium tetrafluorborate (CPPT); 1-cyanoimidazole (1-CI) ; 1-cyanobenzotriazole (1-CBT) or 2-cyanopyridazine-3 one (2-CPO) with the carbohydrate, polysaccharide, oligosaccharide, or combination thereof to create an activated chemical compound; and mixing the activated compound with a second compound to create a conjugate. mixing 1-cyano-4-pyrrolidinopyridinium tetrafluorborate (CPPT); 1-cyanoimidazole (1-CI) ; 1-cyanobenzotriazole (1-CBT) or 2-cyanopyridazine-3 one (2-CPO) with the carbohydrate, polysaccharide, oligosaccharide, or combination thereof to create an activated chemical compound; and mixing the activated compound with a second compound to create a conjugate.
A propulsion system for an aircraft, comprising at least one rotor and a nacelle fairing extending around said at least one rotor with respect to an axis (X) of rotation of said rotor , this nacelle fairing comprising: - an upstream section forming an inlet section (BA) of the nacelle fairing ; - a downstream section wherein a downstream end forms an outlet section (BF) of the nacelle fairing ; and - an intermediate section connecting said upstream and downstream sections; the downstream section comprising a radially inner wall and a radially outer wall made of a deformable shape-memory material, characterised in that the downstream section comprises at least one actuator mechanism with at least one cylinder configured to cooperate with means embedded in an inner surface of the radially outer wall so as to vary an outer diameter (DBF) of the outlet section (BF) between a determined minimum diameter (D BFc ) and determined maximum diameter (D BFd ). - an upstream section forming an inlet section (BA) of the nacelle fairing ; - a downstream section wherein a downstream end forms an outlet section (BF) of the nacelle fairing ; and - an intermediate section connecting said upstream and downstream sections;
A method of manufacturing a bullnose tile, comprising: cutting a field tile into a bullnose form, whereby the cut reveals the undecorated base of the tile, said field tile being a fired tile with a decoration on the top of this tile, and wherein said field tile comprises glaze layers on its top; printing a decorative coat comprising print media on a bullnose edge of the bullnose tile; and curing the print media; characterized in that the method comprises coating a UV curable protective coat on the bullnose edge of the bullnose tile; and UV curing the protective coat.
A method for a wireless device for enabling the wireless device to serve as a base station to at least one other wireless device in a communications network , the wireless device being configured to perform predetermined base station functions, the method comprising: determining a condition triggering a need to provide the predetermined base station functions to the at least one other wireless device (S810); notifying a network node in the communications network that the wireless device is available to provide the predetermined base station functions ; receiving approval from the network node to provide the predetermined base station functions (S830); and providing the predetermined base station functions to the at least one other wireless device (S840), wherein the predetermined base station functions performed by the wireless device include emulating a base station uplink, UL, and a base station downlink, DL, to support the at least one other wireless device such that base station UL and base station DL protocols used with respect to the at least one other wireless device are maintained. determining a condition triggering a need to provide the predetermined base station functions to the at least one other wireless device (S810); notifying a network node in the communications network that the wireless device is available to provide the predetermined base station functions ; receiving approval from the network node to provide the predetermined base station functions (S830); and providing the predetermined base station functions to the at least one other wireless device (S840), wherein the predetermined base station functions performed by the wireless device include emulating a base station uplink, UL, and a base station downlink, DL, to support the at least one other wireless device such that base station UL and base station DL protocols used with respect to the at least one other wireless device are maintained.
Traction battery of an industrial truck, comprising a battery tray , a plurality of battery cells and a cooling device in the form of an air guide shroud which at least partially covers the top side of the battery cells and has at least one air inlet opening for guiding a cooling air stream, characterized in that an optical display is provided on the air guide shroud , which optical display displays the measurement values of at least one temperature sensor arranged between the battery cells in the interior of the traction battery .
A method performed by a transmitter using a polar code, the method comprising: identifying a first bit sequence to be transmitted to a receiver; determining a second bit sequence by encoding the first bit sequence with the polar code; identifying a number of sub-blocks divided from the second bit sequence; performing an interleaving based on an interleaving pattern on the sub-blocks of the second bit sequence; and determining a third bit sequence by performing a rate-matching of the interleaved second bit sequence, wherein the number of the sub-blocks is 32, and wherein the interleaving pattern is . identifying a first bit sequence to be transmitted to a receiver; determining a second bit sequence by encoding the first bit sequence with the polar code; identifying a number of sub-blocks divided from the second bit sequence; performing an interleaving based on an interleaving pattern on the sub-blocks of the second bit sequence; and determining a third bit sequence by performing a rate-matching of the interleaved second bit sequence, wherein the number of the sub-blocks is 32, and wherein the interleaving pattern is .
A hybrid power conversion system for an air conditioned transport vehicle comprising: a plurality of refrigeration components for heating and/or cooling a refrigerated volume ; a battery for storing electrical power to be provided to at least one of the plurality of refrigeration components; a plurality of supplemental power sources for providing electrical power; and a power converter for converting a total available DC power to a total AC power, the total AC power provided to at least one of the plurality of refrigeration components; wherein the hybrid power conversion system does not include a refrigeration system engine and wherein the battery provides all the electrical power required for all operations of the at least one of the plurality of refrigeration components; the hybrid power conversion system being characterised by : a charger configured to combine the electrical power provided by the supplemental power sources and provide a combined DC output to the battery to provide the total available DC power for the refrigeration components. a plurality of refrigeration components for heating and/or cooling a refrigerated volume ; a battery for storing electrical power to be provided to at least one of the plurality of refrigeration components; a plurality of supplemental power sources for providing electrical power; and a power converter for converting a total available DC power to a total AC power, the total AC power provided to at least one of the plurality of refrigeration components; wherein the hybrid power conversion system does not include a refrigeration system engine and wherein the battery provides all the electrical power required for all operations of the at least one of the plurality of refrigeration components; the hybrid power conversion system being characterised by : a charger configured to combine the electrical power provided by the supplemental power sources and provide a combined DC output to the battery to provide the total available DC power for the refrigeration components.
A microorganism of the genus Escherichia producing L-tryptophan, wherein the activity of phosphatase comprising an amino acid sequence of SEQ ID NO: 1 is modified to be inactivated.
Shower cubicle comprising at least one cubicle wall having a fixed wall element and a door element which is pivotably connected to said wall element by means of fittings , wherein the wall element can be clamped with a vertical longitudinal edge into a wall rail which has a U-shaped profile and can be attached to a room wall , wherein an upper fitting on the door element and the wall element is flush with the upper transverse edges (30c or 40c) of said elements, wherein a lower fitting on the door element and the wall element is flush with the lower transverse edges (30d or 40d) of said elements, wherein the upper fitting and the lower fitting on the wall element are respectively secured in a clamping manner to a fitting part by means of two fastening means which are disposed side by side and parallel to the respective transverse edge , wherein the fitting part comprises two parallel cheek parts between which the wall element is held, wherein a first fastening means is configured as a screw which is screwed into a bore having an internal thread of the first cheek part and the wall element presses against the second cheek part , and wherein a second fastening means is configured as a screw which passes through the first cheek part and the wall element and can be screwed into an internal thread of a bore of the second cheek part .
A three-dimensional, 3D, neuromorphic accelerator , comprising a plurality of tiers stacked atop of each other to form the 3D, neuromorphic accelerator, the 3D, neuromorphic accelerator further comprising: a respective plurality of cores defined on each tier of the plurality of tiers, each core comprising at least: a processing element ; a non-volatile memory ; a communications module , and a local power manager ; the 3D, neuromorphic accelerator further comprising: a global power manager configured to coordinate with each local power manager of the neuromorphic accelerator to provide dynamic voltage frequency scaling, DVFS, and power collapse control for each tier of the plurality of tiers, wherein each local power manager is configured to determine a power state of adjacent cores using a handshaking circuitry configured to communicate core-to-core to decide the power state of adjacent cores, each local power manager further configured to adaptively scale the voltage of its own core based on the power state of the adjacent cores. a respective plurality of cores defined on each tier of the plurality of tiers, each core comprising at least: a processing element ; a non-volatile memory ; a communications module , and a local power manager ; the 3D, neuromorphic accelerator further comprising: a global power manager configured to coordinate with each local power manager of the neuromorphic accelerator to provide dynamic voltage frequency scaling, DVFS, and power collapse control for each tier of the plurality of tiers, wherein each local power manager is configured to determine a power state of adjacent cores using a handshaking circuitry configured to communicate core-to-core to decide the power state of adjacent cores, each local power manager further configured to adaptively scale the voltage of its own core based on the power state of the adjacent cores. a processing element ; a non-volatile memory ; a communications module , and a local power manager ; the 3D, neuromorphic accelerator further comprising: a global power manager configured to coordinate with each local power manager of the neuromorphic accelerator to provide dynamic voltage frequency scaling, DVFS, and power collapse control for each tier of the plurality of tiers, wherein each local power manager is configured to determine a power state of adjacent cores using a handshaking circuitry configured to communicate core-to-core to decide the power state of adjacent cores, each local power manager further configured to adaptively scale the voltage of its own core based on the power state of the adjacent cores.
Main bearing for a wind turbine , comprising a stationary ring and a rotating ring to be coupled to a rotor , whereby the main bearing is a fluid film bearing comprising several bearing units, particularly radial , axial and/or tapered bearing units, arranged at the stationary ring around the circumference on both sides of the rotating ring , for bearing the rotating ring , and further comprising a load measurement arrangement for determining measurement data which are a measure for the load applied to or resting on at least one of the bearing units wherein the measurement arrangement is a direct measurement arrangement for measuring the data directly at the at least one bearing unit and the direct measurement arrangement comprises at least one measurement device being directly attached to the at least one bearing unit wherein the measurement device is or comprises at least one strain gauge or one load cell , wherein the or each bearing unit comprises a bearing pad arranged at a support structure by which the bearing unit is mounted to the stationary ring characterised in that the bearing pad is coupled to the support structure by a ball joint with a ball head provided at the bearing pad and a ball socket provided at the support structure , whereby the strain gauge or the load cell is mounted to a bottom side of the support structure adjacent to the ball socket .
Method for configuring a home-automation sensor comprising an element sensitive to a physical quantity to be measured or to be detected, a computer , such as a microprocessor, a data storage medium , notably a memory, a communication element comprising a data or signal transmission element , the method comprising: - a step of selection of at least one mode of operation of the home-automation sensor out of at least one first mode of operation of the home-automation sensor in which the home-automation sensor transmits a first control command determined on the basis of a first physical quantity measured or detected and at least one second mode of operation of the home-automation sensor in which the home-automation sensor transmits a first signal representative of the first physical quantity measured or detected, - a step of activation of the at least one mode of operation selected in the preceding step. - a step of selection of at least one mode of operation of the home-automation sensor out of at least one first mode of operation of the home-automation sensor in which the home-automation sensor transmits a first control command determined on the basis of a first physical quantity measured or detected and at least one second mode of operation of the home-automation sensor in which the home-automation sensor transmits a first signal representative of the first physical quantity measured or detected, - a step of activation of the at least one mode of operation selected in the preceding step.
Slipform paver comprising a monitoring device for monitoring the compaction of concrete introduced into a slipform of the slipform paver by means of at least one concrete compacting device which has an asynchronous motor for driving an unbalanced mass which generates vibrations, characterised in that the monitoring device comprises an apparatus for monitoring the stator current (I Stator ) of the asynchronous motor of the at least one concrete compacting device, said monitoring apparatus being configured such that a change in the compaction of the concrete introduced into the slipform of the slipform paver is determined based on an analysis of the stator current (I sta-tor ) of the asynchronous motor, the apparatus for monitoring the stator current (I Stator ) of the asynchronous motor being configured such that the amplitude spectrum of the stator current is determined in order to analyse the stator current, the stator current is sampled, the amplitude spectrum of the stator current being determined by a discrete-time Fourier transform (DFT), in particular a discrete-time fast Fourier transform (FFT), of the stator current, and the distribution of individual harmonics (X), which are attributable to the unbalanced mass, over the frequency of the spectral components is continuously determined and is compared with a distribution of individual harmonics over the frequency of the spectral components, which distribution is characteristic of a predefined speed of the asynchronous motor, a control signal being generated when a deviation occurs in the distribution of the individual harmonics, which control signal signals a change in the compaction of the concrete introduced into the slipform of the slipform paver. the monitoring device comprises an apparatus for monitoring the stator current (I Stator ) of the asynchronous motor of the at least one concrete compacting device, said monitoring apparatus being configured such that a change in the compaction of the concrete introduced into the slipform of the slipform paver is determined based on an analysis of the stator current (I sta-tor ) of the asynchronous motor, the apparatus for monitoring the stator current (I Stator ) of the asynchronous motor being configured such that the amplitude spectrum of the stator current is determined in order to analyse the stator current, the stator current is sampled, the amplitude spectrum of the stator current being determined by a discrete-time Fourier transform (DFT), in particular a discrete-time fast Fourier transform (FFT), of the stator current, and the distribution of individual harmonics (X), which are attributable to the unbalanced mass, over the frequency of the spectral components is continuously determined and is compared with a distribution of individual harmonics over the frequency of the spectral components, which distribution is characteristic of a predefined speed of the asynchronous motor, a control signal being generated when a deviation occurs in the distribution of the individual harmonics, which control signal signals a change in the compaction of the concrete introduced into the slipform of the slipform paver.
A sensor for determining the concentration of an acidic or basic compound dissolved in water, wherein the determination is based on an ingress of gas or vapor of said compound, causing a change in pH value, within an inner buffer separated from a sample side by a membrane that is essentially permeable to gases and essentially impermeable to ions, characterized in that a layer is provided between the membrane and the sample side, wherein the layer substantially covers the membrane , wherein the layer is water-soluble and has pH buffering properties.
A compound having the structure of Formula I: wherein, is a double bond; Q is absent; G is selected from N, C(H) and C(CH 3 ) ; J 1 is selected from N(H), N(CH 3 ), N(CH 2 CH 3 ), N(CF 3 ), C(H)(CF 3 ), S and O; Z 1 is C or N; Z 2 is C or N; alternatively, Z 1 is N, when D 1 is absent; alternatively, Z 2 is N, when D 4 is absent; E 2 is absent; E 1 is L 1 -R 1 ; L 1 is selected from R 1 is selected from and alternatively, R 1 is provided that J 1 is selected from N(H), N(CH 2 CH 3 ), N(CF 3 ), C(H)(CF 3 ), S and O; alternatively, R 1 is provided that J 1 is N(CH 3 ), L 1 is selected from and D 3 is selected from H, Br, F, Cl, NO 2 , CF 3 , OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3 ), L 1 is and D3 is selected from Br, F, Cl, OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3 ), L 1 is and D3 is selected from NO 2 , CF 3 , ,OMe, CH 3 and OH; alternatively, R 1 is provided that D 3 is selected from Br, F, Cl and NO 2 ; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl and NO 2 ; alternatively, R 1 is provided that D 3 is H; alternatively, R 1 is provided that J 1 is selected from N(H), N(CH 3 ) and O; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl, CF 3 and NO 2 ; D 1 is selected from H, Br, F, Cl and OH; D 2 is selected from H, Br, F and Cl; D 3 is selected from H, Br, F, Cl, CF 3 , OMe, CH 3 and OH; alternatively, D 3 is NO 2 , provided that when R 1 is and when J 1 is O, D 3 is selected from H, Br, F, Cl, CF 3 and D 4 is selected from H, Br, F and Cl; provided that the compound is not is a double bond; Q is absent; G is selected from N, C(H) and C(CH 3 ) ; J 1 is selected from N(H), N(CH 3 ), N(CH 2 CH 3 ), N(CF 3 ), C(H)(CF 3 ), S and O; Z 1 is C or N; Z 2 is C or N; alternatively, Z 1 is N, when D 1 is absent; alternatively, Z 2 is N, when D 4 is absent; E 2 is absent; E 1 is L 1 -R 1 ; L 1 is selected from R 1 is selected from and alternatively, R 1 is provided that J 1 is selected from N(H), N(CH 2 CH 3 ), N(CF 3 ), C(H)(CF 3 ), S and O; alternatively, R 1 is provided that J 1 is N(CH 3 ), L 1 is selected from and D 3 is selected from H, Br, F, Cl, NO 2 , CF 3 , OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3 ), L 1 is and D3 is selected from Br, F, Cl, OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3 ), L 1 is and D3 is selected from NO 2 , CF 3 , ,OMe, CH 3 and OH; alternatively, R 1 is provided that D 3 is selected from Br, F, Cl and NO 2 ; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl and NO 2 ; alternatively, R 1 is provided that D 3 is H; alternatively, R 1 is provided that J 1 is selected from N(H), N(CH 3 ) and O; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl, CF 3 and NO 2 ; D 1 is selected from H, Br, F, Cl and OH; D 2 is selected from H, Br, F and Cl; D 3 is selected from H, Br, F, Cl, CF 3 , OMe, CH 3 and OH; alternatively, D 3 is NO 2 , provided that when R 1 is and when J 1 is O, D 3 is selected from H, Br, F, Cl, CF 3 and D 4 is selected from H, Br, F and Cl; provided that the compound is not
A method of making a solid element device comprising an optical element sealed with a glass material, said method comprising: a mounting step of mounting a plurality of optical elements on an electric power receiving and supplying part comprising an inorganic material substrate having a surface side and a backside, with said plurality of optical elements being mounted on said surface side, and with an electrode being formed and led rout at said backside; a sealing step of bonding a glass material to said surface of said inorganic material substrate , thereby sealing said plurality of optical elements with said glass material; and an isolation step of isolating said electric power receiving and supplying part comprising said inorganic material substrate integrated with said glass material into a plurality of solid element devices , characterized in that said sealing step includes pressing a preformed glass to said surface of said inorganic material substrate in an oxygen barrier atmosphere at a temperature at or above a deformation point of said preformed glass to perform said bonding and sealing. a mounting step of mounting a plurality of optical elements on an electric power receiving and supplying part comprising an inorganic material substrate having a surface side and a backside, with said plurality of optical elements being mounted on said surface side, and with an electrode being formed and led rout at said backside; a sealing step of bonding a glass material to said surface of said inorganic material substrate , thereby sealing said plurality of optical elements with said glass material; and an isolation step of isolating said electric power receiving and supplying part comprising said inorganic material substrate integrated with said glass material into a plurality of solid element devices , characterized in that said sealing step includes pressing a preformed glass to said surface of said inorganic material substrate in an oxygen barrier atmosphere at a temperature at or above a deformation point of said preformed glass to perform said bonding and sealing.