mhurhangee/ep-ind-claims huggingface dataset:
A cooker comprising: a main body including a cooking chamber configured to receive food which is cooked; a door configured to selectively open and close the cooking chamber; a heat source configured to provide heat for heating the food in the cooking chamber; an image sensor to scan the food in the cooking chamber; a lamp provided in the main body to illuminated inside the cooking chamber; a cooling fan provided in the main body to cool the image sensor; a communication part configured to transmit/receive data into/from an external terminal; and a control part configured to control the heat source, the image sensor, the lamp and the cooling fan, characterized in that the control part is configured to control the image sensor to scan the food in real time before the heat source is operated and to control the image sensor to stop the operation of the image sensor after the heat source is stopped, and wherein the control part is configured to control the lamp and the cooling fan to stop the operations of the lamp and the cooling fan when the operation of the image sensor is stopped. a main body including a cooking chamber configured to receive food which is cooked; a door configured to selectively open and close the cooking chamber; a heat source configured to provide heat for heating the food in the cooking chamber; an image sensor to scan the food in the cooking chamber; a lamp provided in the main body to illuminated inside the cooking chamber; a cooling fan provided in the main body to cool the image sensor; a communication part configured to transmit/receive data into/from an external terminal; and a control part configured to control the heat source, the image sensor, the lamp and the cooling fan, characterized in that the control part is configured to control the image sensor to scan the food in real time before the heat source is operated and to control the image sensor to stop the operation of the image sensor after the heat source is stopped, and wherein the control part is configured to control the lamp and the cooling fan to stop the operations of the lamp and the cooling fan when the operation of the image sensor is stopped.
Method for operating a switch mode power supply, which comprises a control for controlling a switch element arranged in the switch mode power supply and is connected to a DC link of a converter, characterised in that a threshold value (Us) of a DC link voltage (U, U') applied to the input-side of the switch mode power supply is detected, that a start delay period commences after the threshold value (Us) is reached and that control of the switch element is blocked until the start delay period has elapsed.
A three-dimensional data encoding method, comprising: encoding one or more pieces of attribute information of respective three-dimensional points, using parameters; and generating a bitstream including the one or more pieces of attribute information encoded and control information, characterized by the one or more pieces of attribute information each being one of types, the bitstream including pieces of first attribute control information, the control information being a sequence parameter set, and the pieces of first attribute control information being attribute information headers, wherein the control information includes one or more pieces of type information each indicating one of the types each associated with a corresponding one of the one or more pieces of attribute information, each of the pieces of first attribute control information corresponds to one of the one or more pieces of attribute information, each of the pieces of first attribute control information includes first identification information indicating that the first attribute control information is associated with one of the one or more pieces of type information, and the first identification information is information for identifying one of the types. encoding one or more pieces of attribute information of respective three-dimensional points, using parameters; and generating a bitstream including the one or more pieces of attribute information encoded and control information, characterized by the one or more pieces of attribute information each being one of types, the bitstream including pieces of first attribute control information, the control information being a sequence parameter set, and the pieces of first attribute control information being attribute information headers, wherein the control information includes one or more pieces of type information each indicating one of the types each associated with a corresponding one of the one or more pieces of attribute information, each of the pieces of first attribute control information corresponds to one of the one or more pieces of attribute information, each of the pieces of first attribute control information includes first identification information indicating that the first attribute control information is associated with one of the one or more pieces of type information, and the first identification information is information for identifying one of the types.
An electronic cigarette vaporizer with a liquid storage transition chamber, comprising a mouth piece, a liquid reservoir and a vaporizing device, wherein the mouth piece is a housing provided with a mouth piece opening at its top end, an inner wall of the housing is sleeved over and tightly abuts against an outer wall of an upper part of the liquid reservoir, the liquid reservoir comprises an upper wall at its top end, and a vapor outlet tube extending downwards from the center of the upper wall is arranged, wherein the vaporizing device comprises a vaporizing base and is sleeved at an inner wall of a lower part of the liquid reservoir, and a liquid storage chamber is defined by an empty cavity formed above the vaporizing device and between an inner wall of the liquid reservoir and an outer wall of the vapor outlet tube; and an inner chamber and an outer chamber sealed from each other are formed inside of the vaporizing base, wherein the inner chamber is mounted with a vaporizing unit and serves as a vaporizing chamber, and the outer chamber is filled with liquid storage medium and serves as a liquid storage transition chamber, the vaporizing chamber is in communication with the vapor outlet tube, and the liquid storage transition chamber is in communication with the liquid storage chamber and serves to supply liquid for the vaporizing unit; characterized in that a liquid refilling tube vertically passing through the vaporizing base and extending into the liquid storage chamber, is arranged in the outer chamber of the vaporizing base, and a plunger for plugging up a tube opening is arranged at a bottom part of the liquid refilling tube.
Optical acquisition device for a motor vehicle, having a housing of the optical acquisition device, in which a light source unit of the optical acquisition device is arranged, wherein light beams can be emitted by means of the light source unit through a housing part of the housing into surroundings of the motor vehicle, wherein the optical acquisition device comprises a checking unit, by means of which a functional state of the housing is checkable, and if an actual functional state of the housing deviating from a reference functional state of the housing is detected, a control signal can be generated, wherein the housing and/or the housing part at least regionally comprises at least one electrically conductive element integrated into the housing and/or into the housing part and the functional state is detectable by checking the electrical resistance of the electrically conductive element and wherein the at least one electrically conductive element is formed as a heating wire of a heating unit of the optical acquisition device, wherein the functional state of the housing part is checkable by means of the checking unit, and if an actual functional state of the housing part deviating from a reference functional state of the housing part is detected, a control signal can be generated, and a housing part removed from the housing and/or a fracture and/or a crack of the housing part is an actual functional state deviating from the reference functional state. wherein the optical acquisition device comprises a checking unit, by means of which a functional state of the housing is checkable, and if an actual functional state of the housing deviating from a reference functional state of the housing is detected, a control signal can be generated, wherein the housing and/or the housing part at least regionally comprises at least one electrically conductive element integrated into the housing and/or into the housing part and the functional state is detectable by checking the electrical resistance of the electrically conductive element and wherein the at least one electrically conductive element is formed as a heating wire of a heating unit of the optical acquisition device, wherein the functional state of the housing part is checkable by means of the checking unit, and if an actual functional state of the housing part deviating from a reference functional state of the housing part is detected, a control signal can be generated, and a housing part removed from the housing and/or a fracture and/or a crack of the housing part is an actual functional state deviating from the reference functional state.
A method of altering chemical properties of an in-process resin when in use in a 3D printing apparatus, the method comprising: monitoring the in-process resin using an imaging spectrometer; comparing the in-process resin and a model using one or more spectrums (121, 122, 123) from the imaging spectrometer; diluting the in-process resin with a diluting resin; and generating a life cycle of the in-process resin based at least on an operating range of the at least one peak ratio. monitoring the in-process resin using an imaging spectrometer; comparing the in-process resin and a model using one or more spectrums (121, 122, 123) from the imaging spectrometer; diluting the in-process resin with a diluting resin; and generating a life cycle of the in-process resin based at least on an operating range of the at least one peak ratio.
A liquid crystal display comprising: a first substrate, a thin film transistor disposed on the first substrate, a first electrode connected to the thin film transistor, and a first alignment layer disposed on the first electrode, wherein the first alignment layer includes polyimide and a capping group connected to a main chain end of the polyimide, the capping group includes at least one of: a first compound represented by following Chemical Formula 1; and a second compound represented by following Chemical Formula 2: wherein A1 and A2 are, independently of each other, an aromatic compound having 4 to 20 carbon atoms or an aliphatic cyclic compound having 4 to 20 carbon atoms; and B1 and B2 are, independently of each other, a crosslinking reaction group containing an alkylene group - C n H 2n -, n is a natural number characterized in that the crosslinking reaction group in the Chemical Formulas 1 and 2 includes a third compound represented by following Chemical Formula 3: wherein n is a natural number of 3 to 11; m1 to m2 are, independently of each other, a natural number of 1 to 4; b1 is wherein R is H or an alkyl group having 1 to 3 carbon atoms, an aromatic compound having 6 to 30 carbon atoms, or an aliphatic cyclic compound having 4 to 20 carbon atoms;; and X1 to X2, independently of one another, include -OH, -NH2, an acrylate group, a methacrylate group, a vinyl group or a first substrate, a thin film transistor disposed on the first substrate, a first electrode connected to the thin film transistor, and a first alignment layer disposed on the first electrode, wherein the first alignment layer includes polyimide and a capping group connected to a main chain end of the polyimide, the capping group includes at least one of: a first compound represented by following Chemical Formula 1; and a second compound represented by following Chemical Formula 2: a first compound represented by following Chemical Formula 1; and a second compound represented by following Chemical Formula 2: wherein A1 and A2 are, independently of each other, an aromatic compound having 4 to 20 carbon atoms or an aliphatic cyclic compound having 4 to 20 carbon atoms; and B1 and B2 are, independently of each other, a crosslinking reaction group containing an alkylene group - C n H 2n -, n is a natural number characterized in that the crosslinking reaction group in the Chemical Formulas 1 and 2 includes a third compound represented by following Chemical Formula 3: wherein n is a natural number of 3 to 11; m1 to m2 are, independently of each other, a natural number of 1 to 4; b1 is wherein R is H or an alkyl group having 1 to 3 carbon atoms, an aromatic compound having 6 to 30 carbon atoms, or an aliphatic cyclic compound having 4 to 20 carbon atoms;; and X1 to X2, independently of one another, include -OH, -NH2, an acrylate group, a methacrylate group, a vinyl group or
A method of performing channel estimation of a wireless communication channel, the method comprising: - determining a channel condition (702, 704) for the wireless communication channel, wherein the channel condition of the wireless communication channel is indicative of at least one of: a delay spread and a Doppler spread of the channel; - applying an estimation filter to reference signals received on the wireless communication channel or to coarse channel estimations based on the reference signals, by estimating channel coefficients for a subset of Resource Elements of the wireless communication channel, wherein the subset is chosen depending on the determined channel condition; and - determining channel coefficients for Resource Elements not included in the subset by interpolating the estimated channel coefficients. - determining a channel condition (702, 704) for the wireless communication channel, wherein the channel condition of the wireless communication channel is indicative of at least one of: a delay spread and a Doppler spread of the channel; - applying an estimation filter to reference signals received on the wireless communication channel or to coarse channel estimations based on the reference signals, by estimating channel coefficients for a subset of Resource Elements of the wireless communication channel, wherein the subset is chosen depending on the determined channel condition; and - determining channel coefficients for Resource Elements not included in the subset by interpolating the estimated channel coefficients.
Wastewater lifting system, wherein the wastewater lifting system comprises an inlet pipe, a solids collection space for receiving untreated wastewater via the inlet pipe, a screen device which is freely accessible from the outside, a pump, and a collection container for receiving wastewater pre-treated at least partially by the screen device, wherein the solids collection space is connected to a pressure pipeline and to a suction line and, via the screen device and the pump, in terms of flow to the collection container, wherein the wastewater lifting system is configured such that solids present in the wastewater are retained by the screen device and remain in the solids collection space, and the collection container, which is filled with the at least partially pre-treated wastewater, is emptied by means of the pump, and the thus generated delivery flow of the wastewater is pumped through the screen device and through the solids collection space into the pressure pipeline, wherein the solids of the wastewater in the solids collection space are carried along by the delivery flow and pass into the pressure pipeline, characterized in that the screen device comprises at least one module which has an outer frame, in that, within the outer frame, there extend from the circumference thereof towards the centre of the outer frame multiple alternately long and short pins which are arranged with a spacing to one another and which run in an inclined manner in relation to the plane formed by the outer frame and in the direction of the delivery flow generated during the emptying of the collection container so as to deviate from the vertical direction, wherein the pins (40, 42) are in the form of round pins (40, 42) and consist of an elastic material, and in that the screen device forms an independent component, which is connected detachably to the wastewater lifting system.
A humidification and air cleaning apparatus comprising: a base body; a water tank detachably disposed on the base body to store water; a watering housing disposed inside the water tank to rotate inside the water tank; a watering motor to generate a torque; a first coupler coupled to the watering motor; and a second coupler coupled to the watering housing and separably coupled to the first coupler to deliver the torque of the watering motor to the watering housing, wherein the water tank comprises: a water tank body to store water; and a water tank base coupled to a lower side of the water tank body and having an insertion hole to receive the first coupler, wherein the second coupler is installed at the water tank base and is disposed inside the water tank. a base body; a water tank detachably disposed on the base body to store water; a watering housing disposed inside the water tank to rotate inside the water tank; a watering motor to generate a torque; a first coupler coupled to the watering motor; and a second coupler coupled to the watering housing and separably coupled to the first coupler to deliver the torque of the watering motor to the watering housing, wherein the water tank comprises: a water tank body to store water; and a water tank base coupled to a lower side of the water tank body and having an insertion hole to receive the first coupler, wherein the second coupler is installed at the water tank base and is disposed inside the water tank. a water tank body to store water; and a water tank base coupled to a lower side of the water tank body and having an insertion hole to receive the first coupler, wherein the second coupler is installed at the water tank base and is disposed inside the water tank.
An aramid pulp characterized in that it is formed from an oilless aramid staple fiber of dried multifilaments that are not coated with a spinning oil agent, wherein a specific surface area is 10 m 2 /g or more.
A method of duplex printing, comprising the steps of: a) feeding a media sheet past a print head assembly (12; 112) in a first pass and printing a front side image on a front side of the sheet; b) measuring a skew angle of a first edge of the sheet relative to a reference direction, the first edge being a trailing edge of the sheet in the first pass; c) flipping the sheet and feeding it to the print head assembly (12; 112) with the first edge as the leading edge; d) calculating and performing a rotation of the sheet relative to a back side image to be printed on the back side of the sheet, the rotation being required for registering the back side image with the front side image; and e) printing the backside image in a second pass, characterized in that step a) comprises printing on the sheet at least two marks which define a lateral direction (x) of the front side image, and said lateral direction (x) is used as the reference direction in step b). a) feeding a media sheet past a print head assembly (12; 112) in a first pass and printing a front side image on a front side of the sheet; b) measuring a skew angle of a first edge of the sheet relative to a reference direction, the first edge being a trailing edge of the sheet in the first pass; c) flipping the sheet and feeding it to the print head assembly (12; 112) with the first edge as the leading edge; d) calculating and performing a rotation of the sheet relative to a back side image to be printed on the back side of the sheet, the rotation being required for registering the back side image with the front side image; and e) printing the backside image in a second pass, characterized in that step a) comprises printing on the sheet at least two marks which define a lateral direction (x) of the front side image, and said lateral direction (x) is used as the reference direction in step b).
Method for pretreating surfaces of parts made of plastics material for galvanic coating, comprising the steps of: A) preparing a plastics material pretreatment immersion solution, containing undissociated peroxymonosulfuric acid and undissociated sulfuric acid, from concentrated sulfuric acid, water and oxidising agent, wherein the oxidising agent contains at least one peroxy group, wherein the oxidising agent is produced in situ by means of electrolysis, wherein the ratio of the amount of sulfuric acid to the amount of water is from 0.42:1 to 1.65:1, wherein the electrolysis is continued at least until the ratio of the amount of sulfuric acid to the amount of all peroxy groups in the immersion solution is at most 312:1, B) immersing the plastics material part to be coated in the plastics material pretreatment immersion solution in an immersion bath. A) preparing a plastics material pretreatment immersion solution, containing undissociated peroxymonosulfuric acid and undissociated sulfuric acid, from concentrated sulfuric acid, water and oxidising agent, wherein the oxidising agent contains at least one peroxy group, wherein the oxidising agent is produced in situ by means of electrolysis, wherein the ratio of the amount of sulfuric acid to the amount of water is from 0.42:1 to 1.65:1, wherein the electrolysis is continued at least until the ratio of the amount of sulfuric acid to the amount of all peroxy groups in the immersion solution is at most 312:1, B) immersing the plastics material part to be coated in the plastics material pretreatment immersion solution in an immersion bath.