mhurhangee/ep-ind-claims huggingface dataset:
Method for producing mechanical paper pulp, comprising at least: - a step of impregnating an untreated wood, comprising contacting the untreated wood with an impregnating composition comprising, relative to its total weight, from 0.01% to 10% by weight of a laccase solution containing 1000 LAMU/mL of said solution, and from 0.1% to 10% by weight of a mediator of formula: in which R1 and R2 are identical or different groups selected from a hydrogen atom and a saturated or unsaturated, linear or branched hydrocarbon chain comprising from 1 to 4 carbon atoms, it being possible for each hydrocarbon chain to be substituted by one or more functional groups selected from -OH, -SO3, benzyl, amino, mercapto, keto, and carboxyl, where R1 and R2 may together form a cyclic structure, to give an impregnated wood, said impregnation composition being used at a rate of from 0.1 to 12 L/kg of the untreated wood for impregnation; and - a step of mechanically refining the impregnated wood, so as to obtain a mechanical paper pulp. - a step of impregnating an untreated wood, comprising contacting the untreated wood with an impregnating composition comprising, relative to its total weight, from 0.01% to 10% by weight of a laccase solution containing 1000 LAMU/mL of said solution, and from 0.1% to 10% by weight of a mediator of formula: in which R1 and R2 are identical or different groups selected from a hydrogen atom and a saturated or unsaturated, linear or branched hydrocarbon chain comprising from 1 to 4 carbon atoms, it being possible for each hydrocarbon chain to be substituted by one or more functional groups selected from -OH, -SO3, benzyl, amino, mercapto, keto, and carboxyl, where R1 and R2 may together form a cyclic structure, to give an impregnated wood, said impregnation composition being used at a rate of from 0.1 to 12 L/kg of the untreated wood for impregnation; and - a step of mechanically refining the impregnated wood, so as to obtain a mechanical paper pulp.
Method for changing a characteristic curve of an accelerator pedal of a motor vehicle, wherein the method comprises the following steps: detecting that a brake booster of the motor vehicle has a malfunction, in particular that a brake booster of the motor vehicle is not operating; and if a malfunction of the brake booster is detected, changing the characteristic curve of the accelerator pedal in such a manner that, when the accelerator pedal is not actuated and a brake pedal of the motor vehicle is not actuated, the motor vehicle is decelerated. detecting that a brake booster of the motor vehicle has a malfunction, in particular that a brake booster of the motor vehicle is not operating; and if a malfunction of the brake booster is detected, changing the characteristic curve of the accelerator pedal in such a manner that, when the accelerator pedal is not actuated and a brake pedal of the motor vehicle is not actuated, the motor vehicle is decelerated.
Vacuum cleaner having a suction nozzle for sucking up dirt and/or dust, in particular coarse material and/or fine dust, from a floor by means of a suction air flow and having a hand part for manually moving the suction nozzle over the floor, the suction nozzle has a housing, has a suction chamber which is formed inside the housing and has an opening on the bottom side forming a suction mouth, a suction channel which opens into the suction chamber for guiding the suction air flow, and a supporting element, the supporting element being movable relative to the underside of the suction nozzle by means of an actuator, in order to increase the distance between the suction mouth and the floor at least in regions by extending the support element and to reduce the distance between the suction mouth and the floor at least in regions by retracting the support element, the actuator being controllable by means of a manually actuable switch arranged on the hand part, the actuator being connected to the switch via a control device, characterized in that the control device is configured in such a way that, when the switch is activated manually for less than a predetermined changeover time, the actuator is activated for switching between the carpet position and the hard floor position.
A self-propelled combine harvester, comprising a threshing device, a separating device, a cleaning device which is disposed downstream of a suction fan unit with at least one housing, at least one inlet opening and at least one outlet opening, a chopping device as well as at least one spreader device for accepting and discharging a flow of material passing through the chopping device, wherein the at least one inlet opening of the suction fan unit faces the cleaning device and the at least one outlet opening of the suction fan unit is positioned below the chopping device, so that a flow of air and material taken in through the at least one inlet opening by the suction fan unit is transferred onto the spreader device in a lower region of the spreader device, wherein the spreader device discharges the flow of material passing through the chopping device in an upper region and discharges the flow of air and material in the lower region, characterized in that at least one rotor is rotatably disposed about a horizontal axis in the at least one housing, and in that the at least one housing has two mirror image, tapered housing sections which are disposed coaxially with respect to the horizontal axis.
Method for producing a steel component provided with an anti-corrosive metal coating comprising the following steps: a) providing a flat steel product from steel material which is quench-hardenable by means of a hot forming process and having a yield strength of 150 - 1100 MPa and a tensile strength of 300 - 1200 MPa; b) electrolytic coating of the flat steel product with an anti-corrosive zinc coating, which only contains unavoidable impurities apart from zinc, wherein the coating is executed in such a way that the electro-deposited anti-corrosive zinc coating has an average layer thickness of less than 5 μm, preferably in the range of 1 - 4 μm, particularly preferably in the range of 2 - 4 μm, c) heating a plate formed from the coated flat steel product to a plate temperature of at least 800°C; d) forming the steel component from the heated plate in a forming tool, and e) hardening the steel component by cooling from a temperature at which the steel component is in a condition suitable for the formation of a tempered or hardened structure, at a cooling rate that is sufficient to form the tempered or hardened structure, characterised in that the plate formed from the coated flat steel product is heated to the said plate temperature in the unannealed state before forming the steel component. a) providing a flat steel product from steel material which is quench-hardenable by means of a hot forming process and having a yield strength of 150 - 1100 MPa and a tensile strength of 300 - 1200 MPa; b) electrolytic coating of the flat steel product with an anti-corrosive zinc coating, which only contains unavoidable impurities apart from zinc, wherein the coating is executed in such a way that the electro-deposited anti-corrosive zinc coating has an average layer thickness of less than 5 μm, preferably in the range of 1 - 4 μm, particularly preferably in the range of 2 - 4 μm, c) heating a plate formed from the coated flat steel product to a plate temperature of at least 800°C; d) forming the steel component from the heated plate in a forming tool, and e) hardening the steel component by cooling from a temperature at which the steel component is in a condition suitable for the formation of a tempered or hardened structure, at a cooling rate that is sufficient to form the tempered or hardened structure,
An electrochromic nanoparticle comprising: a core formed of a first electrochromic material; and a shell encompassing the core and formed of a second electrochromic material, wherein the first electrochromic material is formed of at least one type of transition metal oxide, and the second electrochromic material is formed of an organic material or at least one type of transition metal oxide that is different from the at least one type of transition metal oxide of the first electrochromic material, wherein when a voltage equal to or more than a reference value is applied to the nanoparticles, the nanoparticle is converted from a first state to a second state, and when a reverse voltage equal to or more than the reference value is applied to the nanoparticle in the second state, the nanoparticle is converted from the second state to the first state, and the nanoparticle has different light transmittances in the first and second states, wherein the first electrochromic material and the second electrochromic material in the second state each have a color, characterized in that the second electrochromic material has a complementary color to that of the first electrochromic material in the second state. a core formed of a first electrochromic material; and a shell encompassing the core and formed of a second electrochromic material, wherein the first electrochromic material is formed of at least one type of transition metal oxide, and the second electrochromic material is formed of an organic material or at least one type of transition metal oxide that is different from the at least one type of transition metal oxide of the first electrochromic material, wherein when a voltage equal to or more than a reference value is applied to the nanoparticles, the nanoparticle is converted from a first state to a second state, and when a reverse voltage equal to or more than the reference value is applied to the nanoparticle in the second state, the nanoparticle is converted from the second state to the first state, and the nanoparticle has different light transmittances in the first and second states, wherein the first electrochromic material and the second electrochromic material in the second state each have a color, characterized in that the second electrochromic material has a complementary color to that of the first electrochromic material in the second state.
A delay estimation method performed by an audio coding device, wherein the method comprises: determining a cross-correlation coefficient of a multi-channel audio signal of a current frame; determining a delay track estimation value of the current frame based on buffered inter-channel time difference information of at least one past frame; determining an adaptive window function of the current frame; performing weighting on the cross-correlation coefficient based on the delay track estimation value of the current frame and the adaptive window function of the current frame, to obtain a weighted cross-correlation coefficient; and determining an inter-channel time difference of the current frame based on the weighted cross-correlation coefficient. determining a cross-correlation coefficient of a multi-channel audio signal of a current frame; determining a delay track estimation value of the current frame based on buffered inter-channel time difference information of at least one past frame; determining an adaptive window function of the current frame; performing weighting on the cross-correlation coefficient based on the delay track estimation value of the current frame and the adaptive window function of the current frame, to obtain a weighted cross-correlation coefficient; and determining an inter-channel time difference of the current frame based on the weighted cross-correlation coefficient.
Recombinant protein comprising the extracellular domain derived from Robo1 protein or a part of this domain, a linker and an immunoglobulin Fc domain, for use in the treatment of hepatocarcinoma.
A process of preparing a shaped savoury concentrate having a water activity of less than 0.8 and a total fat content of 10-35 wt.%, said process comprising: a) combining the following ingredients to prepare a fat containing powder mixture: • 100 parts by weight of edible salt selected from sodium chloride, potassium chloride and combinations thereof, • 2-150 parts by weight of one or more particulate ingredients selected from sugars, glutamate, flour, starch, plant pieces and combinations thereof, and • 5-150 parts by weight of fat, said fat comprising at least 30 wt.% of vegetable oil and said fat being in a liquid state when it is combined with the edible salt and the one or more particulate ingredients; b) mixing 100 parts by weight of the fat containing powder mixture with 0.2-10 parts by weight of edible polar liquid to produce a paste; c) optionally mixing 100 parts by weight of the paste with 0.1-30 parts by weight of edible components selected from fat, garnish and combinations thereof; and d) forming the paste into shaped articles by means of extrusion. a) combining the following ingredients to prepare a fat containing powder mixture: • 100 parts by weight of edible salt selected from sodium chloride, potassium chloride and combinations thereof, • 2-150 parts by weight of one or more particulate ingredients selected from sugars, glutamate, flour, starch, plant pieces and combinations thereof, and • 5-150 parts by weight of fat, said fat comprising at least 30 wt.% of vegetable oil and said fat being in a liquid state when it is combined with the edible salt and the one or more particulate ingredients; • 100 parts by weight of edible salt selected from sodium chloride, potassium chloride and combinations thereof, • 2-150 parts by weight of one or more particulate ingredients selected from sugars, glutamate, flour, starch, plant pieces and combinations thereof, and • 5-150 parts by weight of fat, said fat comprising at least 30 wt.% of vegetable oil and said fat being in a liquid state when it is combined with the edible salt and the one or more particulate ingredients; b) mixing 100 parts by weight of the fat containing powder mixture with 0.2-10 parts by weight of edible polar liquid to produce a paste; c) optionally mixing 100 parts by weight of the paste with 0.1-30 parts by weight of edible components selected from fat, garnish and combinations thereof; and d) forming the paste into shaped articles by means of extrusion.
A LIDAR-based method of determining an absolute speed of an object at a long distance from an ego vehicle, the method comprising: estimating a self speed of the ego vehicle using a first frame t-1 and a second frame t obtained from a LIDAR sensor coupled to the ego vehicle by estimating an intervening rotation θ about a z axis and translation in orthogonal x and y directions using a deep learning algorithm over a relatively closer distance range from the ego vehicle compared to the long distance; dividing each of the first frame t-1 and the second frame t into multiple adjacent input ranges and estimating a relative speed of the object at the relatively longer distance by subsequently processing each frame using a network, with each input range processed using a corresponding convolutional neural network; and combining the estimation of the estimating the self speed with the estimation of the estimating the relative speed to obtain an estimation of the absolute speed of the object at the long distance. estimating a self speed of the ego vehicle using a first frame t-1 and a second frame t obtained from a LIDAR sensor coupled to the ego vehicle by estimating an intervening rotation θ about a z axis and translation in orthogonal x and y directions using a deep learning algorithm over a relatively closer distance range from the ego vehicle compared to the long distance; dividing each of the first frame t-1 and the second frame t into multiple adjacent input ranges and estimating a relative speed of the object at the relatively longer distance by subsequently processing each frame using a network, with each input range processed using a corresponding convolutional neural network; and combining the estimation of the estimating the self speed with the estimation of the estimating the relative speed to obtain an estimation of the absolute speed of the object at the long distance.
A method of acquiring sync channel by a mobile station in a mixed bandwidth CDMA communications system supporting both a single carrier mode and a multi-carrier mode, said mobile station operable in at least one of a multi-carrier mode and a single carrier mode, wherein the mobile station receives a multi-carrier signal on a set of frequencies when operating in the multi-carrier mode, the method comprising: tuning to a first preferred frequency of a predefined selected subset of preferred frequencies; attempting to detect a pilot signal on the first preferred frequency, wherein the pilot signal has a unique pilot signal offset; receiving a sync channel message, if the pilot signal is detected on the first preferred frequency, determining the center frequency of a multi-carrier system from the sync channel message in preferred frequency bands or determining the location of a single carrier band from the sync channel message in the preferred frequency bands; and tuning to a second preferred frequency of the selected subset of preferred frequencies, if the pilot signal is not detected on the first preferred frequency, wherein the predefined selected subset of preferred frequencies is selected such that each set of frequencies in the multi-carrier mode includes one frequency from the predefined selected subset of preferred frequencies. tuning to a first preferred frequency of a predefined selected subset of preferred frequencies; attempting to detect a pilot signal on the first preferred frequency, wherein the pilot signal has a unique pilot signal offset; receiving a sync channel message, if the pilot signal is detected on the first preferred frequency, determining the center frequency of a multi-carrier system from the sync channel message in preferred frequency bands or determining the location of a single carrier band from the sync channel message in the preferred frequency bands; and tuning to a second preferred frequency of the selected subset of preferred frequencies, if the pilot signal is not detected on the first preferred frequency, wherein the predefined selected subset of preferred frequencies is selected such that each set of frequencies in the multi-carrier mode includes one frequency from the predefined selected subset of preferred frequencies.
An assisting apparatus for assisting a user in moving an insertion element within an object, the assisting apparatus comprising: - a tracking unit for tracking a three-dimensional position and three-dimensional local shape of the insertion element within the object, - an insertion element representation generating unit for generating an insertion element representation (42', 42"; 42′′′; 42ʺʺ) representing the insertion element within the object in its three-dimensional position and three-dimensional local shape based on the tracked three-dimensional position and tracked three-dimensional local shape of the insertion element, and wherein the insertion element representation generating unit is configured for providing at least two different markings (70, 70', 72, 72'; 78; 78') applied along the length of the insertion element representation (42', 42"; 42′′′; 42"") representing indications of the local shape of the insertion element, and - a display for displaying a display image (60, 60'; 60"; 60′′′) including the insertion element representation (42', 42"; 42′′′; 42"") with the at least two different markings (70, 70', 72, 72'; 78; 78') applied along the length of the insertion element representation (42', 42"; 42′′′; 42ʺʺ). - a tracking unit for tracking a three-dimensional position and three-dimensional local shape of the insertion element within the object, - an insertion element representation generating unit for generating an insertion element representation (42', 42"; 42′′′; 42ʺʺ) representing the insertion element within the object in its three-dimensional position and three-dimensional local shape based on the tracked three-dimensional position and tracked three-dimensional local shape of the insertion element, and wherein the insertion element representation generating unit is configured for providing at least two different markings (70, 70', 72, 72'; 78; 78') applied along the length of the insertion element representation (42', 42"; 42′′′; 42"") representing indications of the local shape of the insertion element, and - a display for displaying a display image (60, 60'; 60"; 60′′′) including the insertion element representation (42', 42"; 42′′′; 42"") with the at least two different markings (70, 70', 72, 72'; 78; 78') applied along the length of the insertion element representation (42', 42"; 42′′′; 42ʺʺ).
A method for identifying a subject having cancer or at risk for developing cancer as having an increased risk of unresponsiveness to treatment with an ALK inhibitor, comprising: analyzing a sample obtained from the subject to detect the presence of one or more mutant ALK polynucleotide molecules encoding a mutant ALK polypeptide comprising a mutation at a position corresponding to position 1156 of the wild type human ALK or to detect the presence of one or more mutant ALK polypeptides comprising a mutation at a position corresponding to position 1156 of the wild type human ALK, wherein the presence of the one or more mutant ALK polynucleotide molecules or mutant ALK polypeptides indicates that the subject has an increased risk of unresponsiveness to treatment with the ALK inhibitor. analyzing a sample obtained from the subject to detect the presence of one or more mutant ALK polynucleotide molecules encoding a mutant ALK polypeptide comprising a mutation at a position corresponding to position 1156 of the wild type human ALK or to detect the presence of one or more mutant ALK polypeptides comprising a mutation at a position corresponding to position 1156 of the wild type human ALK, wherein the presence of the one or more mutant ALK polynucleotide molecules or mutant ALK polypeptides indicates that the subject has an increased risk of unresponsiveness to treatment with the ALK inhibitor.