mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle controller comprising: a storage unit that stores map information representing individual lanes on a road and the types of lane lines between lanes; a detection unit that detects the type of lane line demarcating a travel lane being traveled by a vehicle from a sensor signal generated by a sensor mounted on the vehicle, the sensor signal representing surroundings of the vehicle; and a control unit controlling the vehicle to start a lane change to an adjacent lane; characterized in that : the control unit determines whether the detected type of lane line matches the type of lane line represented in the map information between the travel lane and the adjacent lane adjacent thereto at the current position of the vehicle when a lane change to the adjacent lane is required; the control unit controls the vehicle to start the lane change to the adjacent lane in the case that the detected type of lane line matches the type of lane line represented in the map information; and the control unit controls the vehicle so that the vehicle continues traveling on the travel lane , in the case that the detected type of lane line differs from the type of lane line represented in the map information. a storage unit that stores map information representing individual lanes on a road and the types of lane lines between lanes; a detection unit that detects the type of lane line demarcating a travel lane being traveled by a vehicle from a sensor signal generated by a sensor mounted on the vehicle, the sensor signal representing surroundings of the vehicle; and a control unit controlling the vehicle to start a lane change to an adjacent lane; characterized in that : the control unit determines whether the detected type of lane line matches the type of lane line represented in the map information between the travel lane and the adjacent lane adjacent thereto at the current position of the vehicle when a lane change to the adjacent lane is required; the control unit controls the vehicle to start the lane change to the adjacent lane in the case that the detected type of lane line matches the type of lane line represented in the map information; and the control unit controls the vehicle so that the vehicle continues traveling on the travel lane , in the case that the detected type of lane line differs from the type of lane line represented in the map information. the control unit determines whether the detected type of lane line matches the type of lane line represented in the map information between the travel lane and the adjacent lane adjacent thereto at the current position of the vehicle when a lane change to the adjacent lane is required; the control unit controls the vehicle to start the lane change to the adjacent lane in the case that the detected type of lane line matches the type of lane line represented in the map information; and the control unit controls the vehicle so that the vehicle continues traveling on the travel lane , in the case that the detected type of lane line differs from the type of lane line represented in the map information.
A radio frequency system for performing radio frequency based sensing based on multiple communication technologies , the radio frequency system comprising multiple radio frequency devices (10; 26, ..., 30) each configured, in order to detect sensing events, for performing radio frequency based sensing by transmitting and receiving radio frequency signals using a single-channel communication technology and further configured for performing radio frequency based sensing by transmitting and receiving radio frequency signals using a multi-channel communication technology , wherein the radio frequency system is configured for determining a single-channel confidence level for detecting a sensing event by performing radio frequency based sensing using the single-channel communication technology , and further characterized in that the radio frequency system is configured upon detecting that the single-channel confidence level is above a first single-channel threshold level and below a second single-channel threshold level which is higher than the first single-channel threshold level : - to select a multi-channel communication technology for performing radio frequency based sensing based on one or more radio frequency system criteria, and - to perform radio frequency based sensing by transmitting and receiving RF signals using the multi-channel communication technology . the radio frequency system comprising multiple radio frequency devices (10; 26, ..., 30) each configured, in order to detect sensing events, for performing radio frequency based sensing by transmitting and receiving radio frequency signals using a single-channel communication technology and further configured for performing radio frequency based sensing by transmitting and receiving radio frequency signals using a multi-channel communication technology , wherein the radio frequency system is configured for determining a single-channel confidence level for detecting a sensing event by performing radio frequency based sensing using the single-channel communication technology , and further characterized in that the radio frequency system is configured upon detecting that the single-channel confidence level is above a first single-channel threshold level and below a second single-channel threshold level which is higher than the first single-channel threshold level : - to select a multi-channel communication technology for performing radio frequency based sensing based on one or more radio frequency system criteria, and - to perform radio frequency based sensing by transmitting and receiving RF signals using the multi-channel communication technology . - to select a multi-channel communication technology for performing radio frequency based sensing based on one or more radio frequency system criteria, and - to perform radio frequency based sensing by transmitting and receiving RF signals using the multi-channel communication technology .
A device for operating a motor vehicle, comprising a screen for displaying a projection of a circular cylinder with an end face and a lateral face , wherein in a first state a longitudinal axis of the circular cylinder deviates by less than 45° from a direction of the projection, and in a second state the longitudinal axis of the circular cylinder deviates by more than 45° from the direction of the projection; and an input unit for inputting a rotational direction and a selection confirmation , wherein the inputting of the rotational direction brings about a continuous rotational movement of the circular cylinder about its longitudinal axis , and the inputting of the selection confirmation in the first state brings about a continuous rotational movement of the circular cylinder into the second state about an axis which is perpendicular to the direction of the projection, and wherein in the first state a multiplicity of selection points is arranged on the end face , and in the second state a multiplicity of sub-selection points is arranged on the lateral face , wherein a rotational position of the circular cylinder about the longitudinal axis in the first state determines one of the selection points , and wherein a rotational position of the circular cylinder about the longitudinal axis in the second state determines one of the sub-selection points , and wherein in the first state the centre of the circular cylinder is projected into the centre of the screen , and in the second state the centre of the circular cylinder is projected into the upper half of the screen , and wherein the device is designed to display data in a region of the screen which is cleared as a result of the rotational movement from the first state into the second state.
A chromium-containing water treatment method comprising: a reduction step of reducing the chromium contained in the water by mixing the water containing chromium and a liquid which has been discharged from a process of a factory, said liquid containing hydrogen sulfide at 5 ppm to 50 ppm and adding an acid to a mixed solution to adjust a pH to 3.5 or less and an ORP to 200 mV to 400 mV; and a precipitation and separation step of precipitating reduced chromium contained in a solution obtained through the reduction step as a hydroxide by adding a neutralizing agent to the solution to adjust a pH to 8 to 9 and separating a precipitate of the hydroxide. a reduction step of reducing the chromium contained in the water by mixing the water containing chromium and a liquid which has been discharged from a process of a factory, said liquid containing hydrogen sulfide at 5 ppm to 50 ppm and adding an acid to a mixed solution to adjust a pH to 3.5 or less and an ORP to 200 mV to 400 mV; and a precipitation and separation step of precipitating reduced chromium contained in a solution obtained through the reduction step as a hydroxide by adding a neutralizing agent to the solution to adjust a pH to 8 to 9 and separating a precipitate of the hydroxide.
A method of manipulating a fluid droplet disposed on a surface located on or adjacent to a plurality of separate electrodes comprising: providing the fluid droplet on the surface, the fluid droplet surrounded by an immiscible fluid, wherein one of the fluid droplet or the immiscible fluid contain one of a cationic surfactant or an anionic surfactant therein and wherein the surface under the surfactant-containing fluid droplet or the surfactant-containing immiscible fluid is hydrophilic; applying a voltage between two of the plurality of separate electrodes to make the contact angle between the surfactant-containing fluid droplet or the surfactant-containing immiscible fluid and the hydrophilic surface increase and utilizing the created contact-angle increase to manipulate the fluid droplet, wherein manipulation comprises movement of the fluid droplet on the surface or changing a shape of the fluid droplet. providing the fluid droplet on the surface, the fluid droplet surrounded by an immiscible fluid, wherein one of the fluid droplet or the immiscible fluid contain one of a cationic surfactant or an anionic surfactant therein and wherein the surface under the surfactant-containing fluid droplet or the surfactant-containing immiscible fluid is hydrophilic; applying a voltage between two of the plurality of separate electrodes to make the contact angle between the surfactant-containing fluid droplet or the surfactant-containing immiscible fluid and the hydrophilic surface increase and utilizing the created contact-angle increase to manipulate the fluid droplet, wherein manipulation comprises movement of the fluid droplet on the surface or changing a shape of the fluid droplet.
Packaging tray , manufactured from a deep-drawn plastics film, comprising a base , side walls and a sealing rim which is formed circumferentially on the upper side of the side walls and onto which a sealing film can be laid and welded to the sealing rim , wherein the sealing rim has a contact surface provided for supporting the sealing film with a profiling in the form of projections each forming part of the contact surface and depressions extending between adjacent projections and interrupting the contact surface, the depressions each defining a receiving volume, characterised in that the sealing rim has a width of 4 to 6 mm and, viewed across the width of the sealing rim , 10 to 30 depressions are arranged, which extend continuously in a linear manner over the entire extent of the sealing rim .
A method of stabilizing a video in an electronic device , comprising: acquiring a plurality of frames using an image signal input from an image sensor (S410); receiving an input requesting enlargement at a magnification in relation to the plurality of frames (S420); acquiring shaking information of the plurality of frames (S430) using at least one of: information on movement of a subject included in the plurality of frames, and movement of the electronic device, the shaking information including rotational component information; determining shaking compensation areas in entire areas of each of the plurality of frames for the respective plurality of frames, after and based on at least receiving the input requesting enlargement, said determining of the shaking compensation areas being based on the shaking information of the plurality of frames and information on the magnification from the input requesting enlargement (S440), wherein, based on the rotational component information, at least one shaking compensation area is a trapezoidal shaking compensation area to compensate for rotation; generating output frames corresponding to the respective plurality of frames by rotating the at least one trapezoidal shaking compensation area (S930) and enlarging the shaking compensation areas at the magnification (S450); and providing a video including the output frames (S460). acquiring a plurality of frames using an image signal input from an image sensor (S410); receiving an input requesting enlargement at a magnification in relation to the plurality of frames (S420); acquiring shaking information of the plurality of frames (S430) using at least one of: information on movement of a subject included in the plurality of frames, and movement of the electronic device, the shaking information including rotational component information; determining shaking compensation areas in entire areas of each of the plurality of frames for the respective plurality of frames, after and based on at least receiving the input requesting enlargement, said determining of the shaking compensation areas being based on the shaking information of the plurality of frames and information on the magnification from the input requesting enlargement (S440), wherein, based on the rotational component information, at least one shaking compensation area is a trapezoidal shaking compensation area to compensate for rotation; generating output frames corresponding to the respective plurality of frames by rotating the at least one trapezoidal shaking compensation area (S930) and enlarging the shaking compensation areas at the magnification (S450); and providing a video including the output frames (S460).
A fitting arrangement for lift and slide doors, lift and slide windows or the like, said fitting arrangement comprising an elongated guide rail configured for fastening to a stationary wall , and a contact unit guided in the guide rail , wherein two guide surfaces oriented opposite one another are provided at the guide rail and the contact unit comprises two contact elements oriented opposite one another, wherein one of the contact elements is configured for a guided contact with one of the guide surfaces and the other contact element is configured for a guided contact with the other guide surface to guide the contact unit in the guide rail , wherein a preloading device is provided by means of which the contact elements can each be preloaded transversely to the longitudinal extent of the guide rail against the guide surface associated with the respective contact element , wherein the contact unit comprises a linear guide by means of which at least one of the two contact elements are supported guided in a direction perpendicular to the guide surfaces , wherein the preloading device is arranged at the contact unit , and wherein the preloading device is arranged between the contact elements , characterized in that , in the guide rail , a free space is formed into which the contact unit can be displaced along the guide surfaces transversely to the main sliding direction of the contact unit from a lowered position into a raised position. an elongated guide rail configured for fastening to a stationary wall , and a contact unit guided in the guide rail , wherein two guide surfaces oriented opposite one another are provided at the guide rail and the contact unit comprises two contact elements oriented opposite one another, wherein one of the contact elements is configured for a guided contact with one of the guide surfaces and the other contact element is configured for a guided contact with the other guide surface to guide the contact unit in the guide rail , wherein a preloading device is provided by means of which the contact elements can each be preloaded transversely to the longitudinal extent of the guide rail against the guide surface associated with the respective contact element , wherein the contact unit comprises a linear guide by means of which at least one of the two contact elements are supported guided in a direction perpendicular to the guide surfaces , wherein the preloading device is arranged at the contact unit , and wherein the preloading device is arranged between the contact elements , characterized in that , in the guide rail , a free space is formed into which the contact unit can be displaced along the guide surfaces transversely to the main sliding direction of the contact unit from a lowered position into a raised position.
A composition for the nutrition of a non-human mammal, advantageously a herbivore, comprising a mixture of co-products from cereal distillation or from beer production with or without solubles (DDG and DDGS), concentrated distiller's solubles (CDS) and a mixture of prebiotic fibers, probiotics, amino acids, proteins, omega 3, lignan, and digestive enzymes obtained from wheat, oats, barley malt, flax, flax meal and the nutritional yeast Saccharomyces cerevisiae, said cereals being fermented with the aid of said nutritional yeast Saccharomyces cerevisiae.
A method for treating hair damage, the method comprising contacting the hair with an effective amount of at least one compound of formula (I): wherein: R 1 -R 4 are methyl; R 5 and R 6 are the same or different and each is C 1-26 alkyl or a substituent of the formula: A is selected from one or more of (CH 2 -CH 2 -O) x , (CH(CH 3 )-CH 2 -O) y , and (CH 2 -CH(CH 3 )-O) z , wherein x, y, and z are the same or different and each is from 0-20, provided that at least one of x, y, or z is 1; optionally A is (CH 2 -CH 2 -O) x ; a is from 0-20, optionally a is at least 1; b is from 0-20, optionally b is at least 1; and c is from 0-30, optionally c is at least 1, provided that when a is 0, then at least one of R 5 and R 6 is a substituent of the formula: R 1 -R 4 are methyl; R 5 and R 6 are the same or different and each is C 1-26 alkyl or a substituent of the formula: A is selected from one or more of (CH 2 -CH 2 -O) x , (CH(CH 3 )-CH 2 -O) y , and (CH 2 -CH(CH 3 )-O) z , wherein x, y, and z are the same or different and each is from 0-20, provided that at least one of x, y, or z is 1; optionally A is (CH 2 -CH 2 -O) x ; a is from 0-20, optionally a is at least 1; b is from 0-20, optionally b is at least 1; and c is from 0-30, optionally c is at least 1, A is selected from one or more of (CH 2 -CH 2 -O) x , (CH(CH 3 )-CH 2 -O) y , and (CH 2 -CH(CH 3 )-O) z , wherein x, y, and z are the same or different and each is from 0-20, provided that at least one of x, y, or z is 1; optionally A is (CH 2 -CH 2 -O) x ; a is from 0-20, optionally a is at least 1; b is from 0-20, optionally b is at least 1; and c is from 0-30, optionally c is at least 1,
A dynamic cable assembly for a shallow water floating wind power system, comprising; a dynamic cable , a first end of which is used to connect a floating fan , and a second end of which is used to connect a static cable; a plurality of buoyancy units, provided on the dynamic cable at intervals; a plurality of connection units, each comprising a mooring chain and characterized in that the plurality of connection units further comprise an elastic cable, wherein a bottom end of the elastic cable is fixedly connected with a seabed, a top end of the elastic cable is fixedly connected with a portion of the mooring chain near a bottom end of the mooring chain, and a top end of the mooring chain is fixedly connected with the dynamic cable; the connection units and the buoyancy units jointly define a line shape of the dynamic cable, the line shape of the dynamic cable comprises a first valley section connected with the floating fan, a plurality of peak sections connected with the first valley section and a second valley section between two adjacent peak sections; each buoyancy unit is correspondingly provided at top of one peak section, and each connection unit is correspondingly provided at a side of one peak section away from the floating fan. a dynamic cable , a first end of which is used to connect a floating fan , and a second end of which is used to connect a static cable; a plurality of buoyancy units, provided on the dynamic cable at intervals; a plurality of connection units, each comprising a mooring chain and characterized in that the plurality of connection units further comprise an elastic cable, wherein a bottom end of the elastic cable is fixedly connected with a seabed, a top end of the elastic cable is fixedly connected with a portion of the mooring chain near a bottom end of the mooring chain, and a top end of the mooring chain is fixedly connected with the dynamic cable; the connection units and the buoyancy units jointly define a line shape of the dynamic cable, the line shape of the dynamic cable comprises a first valley section connected with the floating fan, a plurality of peak sections connected with the first valley section and a second valley section between two adjacent peak sections; each buoyancy unit is correspondingly provided at top of one peak section, and each connection unit is correspondingly provided at a side of one peak section away from the floating fan.
A water-in-oil emulsion antiperspirant composition comprising basic aluminium chloride salt, calcium chloride, and glycine, characterised in that the basic aluminium chloride salt is of formula Al 2 OH 4.4 Cl 1.6 to Al 2 OH 4.9 Cl 1.1 and is activated by heating this salt with calcium chloride and glycine, the molar ratio of calcium to aluminium being at least 1:20 and the molar ratio of glycine to aluminium being at least 1:10 in both the heat activation of the basic aluminium salt and in the final composition, wherein the composition comprises a non-ionic emulsifier system comprising two different ethoxylated and/or propoxylated silicone ethers, one having an alkyl terminus and the other not having an alkyl terminus.