mhurhangee/patent-ind-claim-en huggingface dataset:
A control apparatus of a hybrid vehicle having at least one of an internal combustion engine and a rotating electric machine (32-2) as a motive power source comprising: a main power supply (10-1) connected to said rotating electric machine (32-2) to be capable of sending/receiving electric power to/from said rotating electric machine (32-2); a plurality of sub-power supplies (10-2, 10-3) capable of sending/receiving electric power to/from said rotating electric machine (32-2); a switching device (18-2) provided between said plurality of sub-power supplies (10-2, 10-3) and said rotating electric machine (32-2) and configured to be able to connect any one of said plurality of sub-power supplies (10-2, 10-3) to said rotating electric machine (32-2) in accordance with a given command; a switching control portion controlling said switching device (18-2); and a driving control portion executing either driving control of hybrid driving control in which said hybrid vehicle is driven with motive power of at least one of said internal combustion engine and said rotating electric machine (32-2) and electric driving control in which said hybrid vehicle is driven with motive power of said rotating electric machine (32-2) without using said internal combustion engine , characterized in that said switching control portion controls said switching device such that the number of said sub-power supplies (10-2, 10-3) connected to said rotating electric machine (32-2) is smaller during said hybrid driving control than during said electric driving control. a main power supply (10-1) connected to said rotating electric machine (32-2) to be capable of sending/receiving electric power to/from said rotating electric machine (32-2); a plurality of sub-power supplies (10-2, 10-3) capable of sending/receiving electric power to/from said rotating electric machine (32-2); a switching device (18-2) provided between said plurality of sub-power supplies (10-2, 10-3) and said rotating electric machine (32-2) and configured to be able to connect any one of said plurality of sub-power supplies (10-2, 10-3) to said rotating electric machine (32-2) in accordance with a given command; a switching control portion controlling said switching device (18-2); and a driving control portion executing either driving control of hybrid driving control in which said hybrid vehicle is driven with motive power of at least one of said internal combustion engine and said rotating electric machine (32-2) and electric driving control in which said hybrid vehicle is driven with motive power of said rotating electric machine (32-2) without using said internal combustion engine , characterized in that said switching control portion controls said switching device such that the number of said sub-power supplies (10-2, 10-3) connected to said rotating electric machine (32-2) is smaller during said hybrid driving control than during said electric driving control.
A wing tip device for attaching to an aircraft wing comprising: a first wing tip device element having a root end and a tip end ; a second wing tip device element coupled to the tip end of the first wing tip device element ; wherein the second wing tip device element has an inboard portion and an outboard portion , wherein the inboard portion extends inboard from the tip end of the first wing tip device element and the outboard portion extends outboard from the tip end of the first wing tip device element , when viewed in the wing planform direction, wherein the first wing tip device element includes an outboard spanwise extent , when viewed in the wing planform direction, wherein at least a trailing edge portion of the tip end of the first wing tip device element is inboard of the outboard spanwise extent ; and characterised in that the outboard portion of the second wing tip device element extends up to the outboard spanwise extent . a first wing tip device element having a root end and a tip end ; a second wing tip device element coupled to the tip end of the first wing tip device element ; wherein the second wing tip device element has an inboard portion and an outboard portion , wherein the inboard portion extends inboard from the tip end of the first wing tip device element and the outboard portion extends outboard from the tip end of the first wing tip device element , when viewed in the wing planform direction, wherein the first wing tip device element includes an outboard spanwise extent , when viewed in the wing planform direction, wherein at least a trailing edge portion of the tip end of the first wing tip device element is inboard of the outboard spanwise extent ; and characterised in that the outboard portion of the second wing tip device element extends up to the outboard spanwise extent .
Control unit for a heating- or cooling and/or ventilation- and/or air-conditioning-apparatus, comprising an user interface via which at least one user-specific parameter can be entered and a generation unit which is configured to - receive the at least one user-specific parameter and also data from at least one sensor, - calculate a quantity indicative of a thermal sensation of a user based on the at least one user-specific parameter and the data from the at least one sensor, - determine a deviation of this quantity from a value indicative of a target thermal sensation and - output a control variable correlating with this deviation to the heating- or cooling and/or ventilation- and/or air-conditioning-apparatus, wherein the at least one user-specific parameter includes the body fat ratio of a user and wherein the at least one sensor includes a temperature sensor for room air, wherein the at least one user-specific parameter further includes a clothing rate. an user interface via which at least one user-specific parameter can be entered and a generation unit which is configured to - receive the at least one user-specific parameter and also data from at least one sensor, - calculate a quantity indicative of a thermal sensation of a user based on the at least one user-specific parameter and the data from the at least one sensor, - determine a deviation of this quantity from a value indicative of a target thermal sensation and - output a control variable correlating with this deviation to the heating- or cooling and/or ventilation- and/or air-conditioning-apparatus, - receive the at least one user-specific parameter and also data from at least one sensor, - calculate a quantity indicative of a thermal sensation of a user based on the at least one user-specific parameter and the data from the at least one sensor, - determine a deviation of this quantity from a value indicative of a target thermal sensation and - output a control variable correlating with this deviation to the heating- or cooling and/or ventilation- and/or air-conditioning-apparatus, wherein the at least one user-specific parameter includes the body fat ratio of a user and wherein the at least one sensor includes a temperature sensor for room air, wherein the at least one user-specific parameter further includes a clothing rate.
An industrial truck, in particular a towing vehicle comprising a travel speed input means that can be actuated by an operator and a travel controller that is provided for a travel drive and that converts a current target value of the travel speed input means into a target value for an engine torque to be generated, the target value for the engine torque, depending on a rotational speed of the engine, being limited to a maximum value that prevents overheating of the engine during continuous operation, characterized in that an additional switch is provided, the actuation of which causes the travel controller to generate a target value for the engine torque for a predetermined period of acceleration, which target value is greater than the maximum values suitable for continuous operation.
An airtight lip cosmetic case having improved sealing capability in which a lip cosmetic product inside an upper case rises and protrudes when a lower case rotates, the airtight lip cosmetic case comprising: the upper case rotatably coupled to an upper portion of the lower case and formed on a lower outer circumference thereof with a sealing shoulder ; a rising piston coupled inside the upper case to rise and having the lip cosmetic product attached to an upper side of the rising piston ; and an over-cap including an inner over-cap and an outer over-cap for opening and closing the upper case , wherein a circumferential groove is formed between a lower portion of the inner over-cap and the outer over-cap when the over-cap is coupled to the lower case while covering the upper case , such that the lower inner circumference of the inner over-cap is elastically inserted into an outer circumference of the sealing shoulder of the upper case . the upper case rotatably coupled to an upper portion of the lower case and formed on a lower outer circumference thereof with a sealing shoulder ; a rising piston coupled inside the upper case to rise and having the lip cosmetic product attached to an upper side of the rising piston ; and an over-cap including an inner over-cap and an outer over-cap for opening and closing the upper case , wherein a circumferential groove is formed between a lower portion of the inner over-cap and the outer over-cap when the over-cap is coupled to the lower case while covering the upper case , such that the lower inner circumference of the inner over-cap is elastically inserted into an outer circumference of the sealing shoulder of the upper case .
A semiconductor nanocrystal particle comprising a transition metal chalcogenide represented by Chemical Formula 1, the semiconductor nanocrystal particle having a size of less than or equal to 15 nanometers: Chemical Formula 1 M 1 M 2 Cha 3 wherein M 1 is Ca, Sr, Ba, or a combination thereof, M 2 is Ti, Zr, Hf, or a combination thereof, and Cha is S, Se, Te, or a combination thereof, and wherein the semiconductor nanocrystal particle further comprises an organic ligand on a surface of the semiconductor nanocrystal particle. wherein M 1 is Ca, Sr, Ba, or a combination thereof, M 2 is Ti, Zr, Hf, or a combination thereof, and Cha is S, Se, Te, or a combination thereof, and wherein the semiconductor nanocrystal particle further comprises an organic ligand on a surface of the semiconductor nanocrystal particle.
A method for determining a geo coordinate for an indoor location, the method comprising: receiving and storing information of a plurality of anchor points , wherein the information of each anchor point includes Global Positioning System, GPS, data of a particular location of the each anchor point and radio frequency, RF, data, from one or more RF transmitting devices, that was obtained at a device at the particular location of the each anchor point; selecting a subset of the plurality of anchor points based on at least a number of overlapping RF signal transmitting devices between the each anchor point and a first indoor location; and determining a first geo coordinate for the first indoor location based on a distance between each anchor point of the selected subset of the plurality of anchor points and the first indoor location, and the GPS data of the each anchor point of the selected subset of the plurality of anchor points, wherein the distance is determined based on a similarity between a first RF data obtained at the first indoor location and each RF data of the each anchor point of the selected subset of the plurality of anchor points. receiving and storing information of a plurality of anchor points , wherein the information of each anchor point includes Global Positioning System, GPS, data of a particular location of the each anchor point and radio frequency, RF, data, from one or more RF transmitting devices, that was obtained at a device at the particular location of the each anchor point; selecting a subset of the plurality of anchor points based on at least a number of overlapping RF signal transmitting devices between the each anchor point and a first indoor location; and determining a first geo coordinate for the first indoor location based on a distance between each anchor point of the selected subset of the plurality of anchor points and the first indoor location, and the GPS data of the each anchor point of the selected subset of the plurality of anchor points, wherein the distance is determined based on a similarity between a first RF data obtained at the first indoor location and each RF data of the each anchor point of the selected subset of the plurality of anchor points.
A method of decoding an encoded representation of a slice of a picture, said encoded representation comprising a slice header and slice data, said method comprising: parsing a length indicator (S80) associated with said encoded representation of said slice of said picture and indicative of a length of an extension field in said slice header of said encoded representation of said slice of said picture; identifying (S81), based on said length indicator, said extension field in said slice header; and decoding (S82) said encoded representation of said slice based on at least one value of said extension field identified based on said length indicator. parsing a length indicator (S80) associated with said encoded representation of said slice of said picture and indicative of a length of an extension field in said slice header of said encoded representation of said slice of said picture; identifying (S81), based on said length indicator, said extension field in said slice header; and decoding (S82) said encoded representation of said slice based on at least one value of said extension field identified based on said length indicator.
A residue disposal method of disposing of a residue which contains aluminum chloride and which is discharged in a reaction product gas processing step included in a trichlorosilane producing method of producing trichlorosilane by reacting metal silicon, tetrachlorosilane, and hydrogen with each other, the residue disposal method characterized by comprising: - a drying step of (i) drying the residue so that the residue contains a chlorosilane compound in an amount of not more than 10% by mass and (ii) obtaining a powdered residue, and - a temperature in the drying step being 50°C to 130°C. - a drying step of (i) drying the residue so that the residue contains a chlorosilane compound in an amount of not more than 10% by mass and (ii) obtaining a powdered residue, and - a temperature in the drying step being 50°C to 130°C.
A folding-type chassis of a lawn mower, comprising: a fixing disc , and at least one rotating disc rotationally connected with the fixing disc through a rotating arm , wherein the fixing disc is adapted to be fixedly arranged at the bottom of the mower , wherein mowing blades are respectively arranged within the fixing disc and the rotating disc , wherein a driving device used for driving the mowing blades to rotate is adapted to be arranged in the mower , characterized in that a lead-screw motor is adapted to be arranged on the mower , wherein an output end of the lead-screw motor is in transmission connection with a lead screw , wherein a sliding block is arranged on the lead screw, and the sliding block is connected with a rocking bar , wherein the rocking bar is connected with the rotating arm . a fixing disc , and at least one rotating disc rotationally connected with the fixing disc through a rotating arm , wherein the fixing disc is adapted to be fixedly arranged at the bottom of the mower , wherein mowing blades are respectively arranged within the fixing disc and the rotating disc , wherein a driving device used for driving the mowing blades to rotate is adapted to be arranged in the mower , characterized in that a lead-screw motor is adapted to be arranged on the mower , wherein an output end of the lead-screw motor is in transmission connection with a lead screw , wherein a sliding block is arranged on the lead screw, and the sliding block is connected with a rocking bar , wherein the rocking bar is connected with the rotating arm .
Induction heating system comprising a hotplate and one or more electronic items for communicative cooking able to communicate with the hotplate , the hotplate comprising: - at least two induction heating zones for supporting one or more electronic items communicating with the hotplate, - a control unit connected to each heating zone and - a communication device connected to the control unit and able to receive from the communicating electronic item or items or even from a portable communication terminal : - activation signals (SA) of the control unit , - control signals (SCO) of the heating power of the heating zone once a communicating electronic item is detected and paired with said heating zone or - confirmation signals (SC) of the pairing which indicate that a magnetic flux generated by a heating zone has been detected by a communicating electronic item ; the electronic item or items for communicative cooking comprising a unit for processing the signal for generating the at least one activation signal (SA), the confirmation signal (SC) and/or the control signal (SCO), a device for measuring a magnetic field connected to the processing unit and arranged to generate the confirmation signal (SC) and a communication module able to communicate with the communication device of the hotplate ; where in said system the control unit has a functioning mode referred to as scanning in which all of the heating zones are supplied consecutively for a defined period (T0) when the communication device receives an activation signal (SA) or when the communication device no longer receives a confirmation signal (SC) emitted by one of the one or more electrical items for communicative cooking, this mode of scanning being performed during a defined period (T1) or until the control unit receives a confirmation signal (SC) of the paring between a communicating electronic item and one of the heating zones . - at least two induction heating zones for supporting one or more electronic items communicating with the hotplate, - a control unit connected to each heating zone and - a communication device connected to the control unit and able to receive from the communicating electronic item or items or even from a portable communication terminal : - activation signals (SA) of the control unit , - control signals (SCO) of the heating power of the heating zone once a communicating electronic item is detected and paired with said heating zone or - confirmation signals (SC) of the pairing which indicate that a magnetic flux generated by a heating zone has been detected by a communicating electronic item ; - activation signals (SA) of the control unit , - control signals (SCO) of the heating power of the heating zone once a communicating electronic item is detected and paired with said heating zone or - confirmation signals (SC) of the pairing which indicate that a magnetic flux generated by a heating zone has been detected by a communicating electronic item ;
A reformer device comprising a reaction chamber (22, 22', 22", 22''') for carrying out a reaction having a hydrocarbon stream as a reactant gas and with hydrogen rich synthesis gas as a reaction product, wherein a membrane (25, 25', 25", 25''') is provided within the reaction chamber (22, 22', 22", 22'''), said reformer device further comprising a heating reactor for heating the reaction chamber (22, 22', 22", 22'''), characterized in that a. The membrane (25, 25', 25", 25''') is a semi-permeable membrane arranged to allow CO 2 pass through it, b. The reaction chamber (22, 22', 22", 22''') comprises a catalyst material (26, 26', 26", 26''') arranged to catalyze a steam methane reforming reaction and to catalyze a water gas shift reaction, and c. The reformer device is arranged to carry out the steam methane reforming reaction at a pressure between 15 and 50 bar above atmospheric pressure (between 15 and 50 barg) within the reaction chamber (22, 22', 22", 22'''). a. The membrane (25, 25', 25", 25''') is a semi-permeable membrane arranged to allow CO 2 pass through it, b. The reaction chamber (22, 22', 22", 22''') comprises a catalyst material (26, 26', 26", 26''') arranged to catalyze a steam methane reforming reaction and to catalyze a water gas shift reaction, and c. The reformer device is arranged to carry out the steam methane reforming reaction at a pressure between 15 and 50 bar above atmospheric pressure (between 15 and 50 barg) within the reaction chamber (22, 22', 22", 22''').
A portable printer, comprising: a housing , including: an inner layer formed of a first material, the inner layer including a protruding part formed on at least one end thereof, and an outer layer formed of a second material, the outer layer covering the inner layer , at least one end of the outer layer being covered by the protruding part ; and an opening and closing cover configured to openably and closably attach to the housing ; characterized in that the second material having a higher mold shrinkage ratio than the first material; and the inner layer and the outer layer are formed with double molding. an inner layer formed of a first material, the inner layer including a protruding part formed on at least one end thereof, and an outer layer formed of a second material, the outer layer covering the inner layer , at least one end of the outer layer being covered by the protruding part ; and an opening and closing cover configured to openably and closably attach to the housing ; characterized in that the second material having a higher mold shrinkage ratio than the first material; and the inner layer and the outer layer are formed with double molding.
A process for the production of a low-bacteria milk powder having a whey protein nitrogen index (MPI) of at least 6, comprising the following steps: (a) providing a raw milk; (b) heating the raw milk in two serially connected heat exchangers, of which at least one represents a tubular heat exchanger, whereby the milk is heated to about 35 °C in the first exchanger and to about 55 °C in the second exchanger, (c) separating the cream, obtaining a skimmed milk; (d) pasteurizing the skimmed milk in a tubular heat exchanger for a period from 10 to 60 seconds at a temperature from 72 to 75 °C; (e) evaporating the pasteurized skimmed milk to a dry matter content from 35 to 55% by weight; (f) drying the pasteurized skimmed milk concentrate in a spray tower. (a) providing a raw milk; (b) heating the raw milk in two serially connected heat exchangers, of which at least one represents a tubular heat exchanger, whereby the milk is heated to about 35 °C in the first exchanger and to about 55 °C in the second exchanger, (c) separating the cream, obtaining a skimmed milk; (d) pasteurizing the skimmed milk in a tubular heat exchanger for a period from 10 to 60 seconds at a temperature from 72 to 75 °C; (e) evaporating the pasteurized skimmed milk to a dry matter content from 35 to 55% by weight; (f) drying the pasteurized skimmed milk concentrate in a spray tower.
Composition comprising Lactobacillus rye ferment, dialkylisosorbide, phospholipid and ethoxylated sorbitan fatty acid ester.