mhurhangee/ep-ind-claims huggingface dataset:
A ductless type clothes drier, comprising: a body; a drum rotatably installed within the body; a heat pump system including a condenser configured to supply hot air into the drum, and an evaporator configured to remove moisture inside air exhausted from the drum; and a lint removing unit configured to inject water to the evaporator so that lint on the evaporator can be removed, characterized by an exhaustion duct having one end connected to the evaporator, and another end exposed to outside of the body; a case encompassing the evaporator, wherein the case is configured to contain condensing water at a bottom surface thereof, an inlet of the case being connected to the drum by a circulation duct and an outlet of the case being connected to the exhaustion duct; and a pump for periodically discharging the condensing water of the case; wherein a filter is installed in the circulation duct configured to filter lint included in the air exhausted from the drum; and wherein the lint removing unit is configured to remove lint on a front surface of the evaporator, which faces the inlet of the case, and includes: a nozzle installed at a front side of the evaporator; a tube configured to supply water to the nozzle; and a valve installed at the tube. a body; a drum rotatably installed within the body; a heat pump system including a condenser configured to supply hot air into the drum, and an evaporator configured to remove moisture inside air exhausted from the drum; and a lint removing unit configured to inject water to the evaporator so that lint on the evaporator can be removed, characterized by an exhaustion duct having one end connected to the evaporator, and another end exposed to outside of the body; a case encompassing the evaporator, wherein the case is configured to contain condensing water at a bottom surface thereof, an inlet of the case being connected to the drum by a circulation duct and an outlet of the case being connected to the exhaustion duct; and a pump for periodically discharging the condensing water of the case; wherein a filter is installed in the circulation duct configured to filter lint included in the air exhausted from the drum; and wherein the lint removing unit is configured to remove lint on a front surface of the evaporator, which faces the inlet of the case, and includes: a nozzle installed at a front side of the evaporator; a tube configured to supply water to the nozzle; and a valve installed at the tube. a nozzle installed at a front side of the evaporator; a tube configured to supply water to the nozzle; and a valve installed at the tube.
A flow device comprising a body, the body comprising: - a fixing part which is intended to be mounted in a sealing manner on a liquid vessel, - a transfer part which extends from the fixing part and comprises a pouring spout which is arranged on an end opposite the fixing part, - a flow duct comprising a flow outlet which is situated on a side face of the spout and a flow inlet which is situated in an inside space of the fixing part, - an air supply duct comprising an air inlet which is situated on a side face of the transfer part and an air outlet which is situated beyond the flow inlet in the direction of the fixing part, the flow device further comprising a cap which is translationally movable with respect to the body along a sliding axis, in which the flow outlet forms a first valve seat of a first valve, the air inlet forms a second valve seat of a second valve which is separate from the first valve, the cap comprising a first valve (50, 51) which is suitable for cooperating with the first valve seat in order to close the flow duct and a second valve which is suitable for cooperating with the second valve seat in order to close the air supply duct, the device further comprising a restoring element which exerts a restoring force on the cap with respect to the body toward a closed position in which the first valve and the second valve are held on the first valve seat and on the second valve seat respectively in response to an opposing force. - a fixing part which is intended to be mounted in a sealing manner on a liquid vessel, - a transfer part which extends from the fixing part and comprises a pouring spout which is arranged on an end opposite the fixing part, - a flow duct comprising a flow outlet which is situated on a side face of the spout and a flow inlet which is situated in an inside space of the fixing part, - an air supply duct comprising an air inlet which is situated on a side face of the transfer part and an air outlet which is situated beyond the flow inlet in the direction of the fixing part,
A method of controlling two or more commutator DC motors with permanent magnets in driving mechanisms for setting a position of furniture parts, where particular driving mechanisms maintain mutually defined speed independently on different load of each motor, while, during functioning of the motors power supply of the motors is periodically disconnected and in the time of disconnected supply voltage of each motor is detected, characterized by that the detected voltage of each motor is adjusted using calibration constants of the respective motor, where the calibration constants are defined respectively for each particular motor and direction of its movement, while according to the differences of the adjusted detected voltage of each motor the operating mode of each of the motors is adjusted for regulation of run of each of the motors to mutually defined speed, which is independent on load and direction of movement of each motor.
Tool carrier for a loading vehicle or a loading apparatus, said tool carrier having a tool carrier frame and tool receiving means (20, 20') realized on the tool carrier frame, characterized in that the tool receiving means (20, 20') are realized as plug-in elements (60, 60') having a slot-shaped recess (60, 60') and receiving plug-in slots having a web-shaped retaining plate are realized on the tool carrier frame, wherein the tool receiving means (20, 20') realized as plug-in elements (60, 60') can be plugged into the receiving plug-in slots by virtue of the slots (60, 60') receiving the respective retaining plate.
A method of delivering coolant to a medical device, comprising: transferring a coolant in a liquid state from a coolant reservoir (54, 56) to a subcooler (68;98; 118; 120; 136); operating the subcooler to modify temperature and pressure characteristics of the coolant in the liquid state to change the coolant to a supercritical state; transferring a coolant in a supercritical state from the subcooler (68; 98; 118; 120; 136) to a treatment region of the medical device for non surgical purposes; and dispersing the coolant through a valve or expansion element to change the coolant from the supercritical state into a mixed liquid-gaseous state at the treatment region. transferring a coolant in a liquid state from a coolant reservoir (54, 56) to a subcooler (68;98; 118; 120; 136); operating the subcooler to modify temperature and pressure characteristics of the coolant in the liquid state to change the coolant to a supercritical state; transferring a coolant in a supercritical state from the subcooler (68; 98; 118; 120; 136) to a treatment region of the medical device for non surgical purposes; and dispersing the coolant through a valve or expansion element to change the coolant from the supercritical state into a mixed liquid-gaseous state at the treatment region.
A method for producing hydroxypropyl methyl cellulose having a methoxy degree of substitution of from 1.4 to 2.2 and a hydroxypropoxy molar substitution of from 0.5 to 1.0, comprising steps of: bringing sheet-like or chip-like pulp into contact with an alkali metal hydroxide solution to obtain a reaction product mixture containing alkali cellulose, removing a liquid portion from the reaction product mixture to obtain the alkali cellulose, reacting the obtained alkali cellulose with an etherifying agent to obtain crude hydroxypropyl methyl cellulose, disintegrating the crude hydroxypropyl methyl cellulose to obtain disintegrated crude hydroxypropyl methyl cellulose, dispersing the disintegrated crude hydroxypropyl methyl cellulose in water to obtain a slurry, filtering the slurry to obtain a cake, and washing the cake. bringing sheet-like or chip-like pulp into contact with an alkali metal hydroxide solution to obtain a reaction product mixture containing alkali cellulose, removing a liquid portion from the reaction product mixture to obtain the alkali cellulose, reacting the obtained alkali cellulose with an etherifying agent to obtain crude hydroxypropyl methyl cellulose, disintegrating the crude hydroxypropyl methyl cellulose to obtain disintegrated crude hydroxypropyl methyl cellulose, dispersing the disintegrated crude hydroxypropyl methyl cellulose in water to obtain a slurry, filtering the slurry to obtain a cake, and washing the cake.
Data processing apparatus comprising: data communication circuitry to communicate data, by wireless radio frequency communication, with a set of one or more external devices, the data communication circuitry being configured to detect a corresponding wireless signal strength of a data communication from each of the set of external devices; a data processor to detect a respective estimated separation of each of the set of external devices from the apparatus in dependence upon the respective detected wireless signal strengths; and an image processor to detect, in images captured by a camera, an image of an external device having image properties consistent with the estimated separation of a given one of the set of external devices from the apparatus and to associate the external device detected in the images captured by the camera with data communications between the apparatus and the given one of the set of external devices, said data processing apparatus being characterized in that the data communication circuitry (148, 150) is configured to request the set of one or more external devices to vary their wireless transmission power and to repeat the detection of wireless signal strength with the set of one of more external devices using different respective wireless transmission powers. data communication circuitry to communicate data, by wireless radio frequency communication, with a set of one or more external devices, the data communication circuitry being configured to detect a corresponding wireless signal strength of a data communication from each of the set of external devices; a data processor to detect a respective estimated separation of each of the set of external devices from the apparatus in dependence upon the respective detected wireless signal strengths; and an image processor to detect, in images captured by a camera, an image of an external device having image properties consistent with the estimated separation of a given one of the set of external devices from the apparatus and to associate the external device detected in the images captured by the camera with data communications between the apparatus and the given one of the set of external devices,
An electrode active material comprising: a core active material having a layered structure and capable of reversibly incorporating and deincorporating lithium; a dopant comprising boron and a first metal in the core active material; and a nanostructure disposed on a surface of the core active material and comprising a metal borate compound comprising a second metal, wherein the second metal is the same as the first metal, wherein a total amount of boron and the first metal in the dopant, and boron and the second metal contained in the metal borate compound is in a range of 0.3 mol % to 1 mol % based on 1 mol of the core active material, wherein the core active material is a compound represented by Formula 3 having a layered structure: Formula 3 LiNi x M 1 1-x O 2-e M' e wherein, in Formula 3, M 1 is manganese, vanadium, chromium, iron, cobalt, zirconium, rhenium, boron, germanium, ruthenium, tin, titanium, niobium, molybdenum, platinum, or a combination thereof; M' is an anion element comprising F, S, Cl, Br, or a combination thereof; and x and e satisfy 0.7 ≤ x < 1 and 0 ≤ e < 1, wherein the first metal comprises aluminum, zirconium, calcium, barium, bismuth, tin, zinc, silicon, strontium, titanium, vanadium, chromium, iron, copper, niobium, molybdenum, ruthenium, palladium, silver, cadmium, tantalum, tungsten, iridium, platinum, gold, or a combination thereof, and wherein the amount of boron, the first metal, and the second metal are measured via Inductively Coupled Plasma ICP spectrometry analysis. a core active material having a layered structure and capable of reversibly incorporating and deincorporating lithium; a dopant comprising boron and a first metal in the core active material; and a nanostructure disposed on a surface of the core active material and comprising a metal borate compound comprising a second metal, wherein the second metal is the same as the first metal, wherein a total amount of boron and the first metal in the dopant, and boron and the second metal contained in the metal borate compound is in a range of 0.3 mol % to 1 mol % based on 1 mol of the core active material, wherein the core active material is a compound represented by Formula 3 having a layered structure: Formula 3 LiNi x M 1 1-x O 2-e M' e wherein, in Formula 3, M 1 is manganese, vanadium, chromium, iron, cobalt, zirconium, rhenium, boron, germanium, ruthenium, tin, titanium, niobium, molybdenum, platinum, or a combination thereof; M' is an anion element comprising F, S, Cl, Br, or a combination thereof; and x and e satisfy 0.7 ≤ x < 1 and 0 ≤ e < 1, wherein the first metal comprises aluminum, zirconium, calcium, barium, bismuth, tin, zinc, silicon, strontium, titanium, vanadium, chromium, iron, copper, niobium, molybdenum, ruthenium, palladium, silver, cadmium, tantalum, tungsten, iridium, platinum, gold, or a combination thereof, and wherein the amount of boron, the first metal, and the second metal are measured via Inductively Coupled Plasma ICP spectrometry analysis.
A therapeutic dressing comprising: (a) a composition comprising: (i) an organic electrochemical mediator configured to reduce a gasotransmitter salt the organic electrochemical mediator comprising an organic redox moiety and a solubilizing moiety, wherein the redox moiety is capable of being reduced at an electrode to form a radical anion that in turn will reduce the gasotransmitter salt; and (ii) the gasotransmitter salt converting into a gasotransmitter upon reduction, wherein the gasotransmitter salt is selected from nitrate, nitrite, sulfate, thiosulfate and sulfite salts; (b) a carrier adapted to contain said composition; and (c) a source of current in electrical contact with said composition capable of producing the gasotransmitter. (a) a composition comprising: (i) an organic electrochemical mediator configured to reduce a gasotransmitter salt the organic electrochemical mediator comprising an organic redox moiety and a solubilizing moiety, wherein the redox moiety is capable of being reduced at an electrode to form a radical anion that in turn will reduce the gasotransmitter salt; and (ii) the gasotransmitter salt converting into a gasotransmitter upon reduction, wherein the gasotransmitter salt is selected from nitrate, nitrite, sulfate, thiosulfate and sulfite salts; (i) an organic electrochemical mediator configured to reduce a gasotransmitter salt the organic electrochemical mediator comprising an organic redox moiety and a solubilizing moiety, wherein the redox moiety is capable of being reduced at an electrode to form a radical anion that in turn will reduce the gasotransmitter salt; and (ii) the gasotransmitter salt converting into a gasotransmitter upon reduction, wherein the gasotransmitter salt is selected from nitrate, nitrite, sulfate, thiosulfate and sulfite salts; (b) a carrier adapted to contain said composition; and (c) a source of current in electrical contact with said composition capable of producing the gasotransmitter.
An injection molding machine comprising: a cover which surrounds a noise generation source of the injection molding machine; and a soundproof portion which reduces a noise propagating to an outside of the cover, wherein the soundproof portion includes a porous portion which attenuates a sound wave propagating from the noise generation source, between the noise generation source and the cover, characterised in that the soundproof portion includes a rib portion which reinforces the cover to suppress a vibration of the cover, and that the soundproof portion further includes a protection cover portion which protects the porous portion from a side opposite to the cover. a cover which surrounds a noise generation source of the injection molding machine; and a soundproof portion which reduces a noise propagating to an outside of the cover, wherein the soundproof portion includes a porous portion which attenuates a sound wave propagating from the noise generation source, between the noise generation source and the cover, characterised in that the soundproof portion includes a rib portion which reinforces the cover to suppress a vibration of the cover, and that the soundproof portion further includes a protection cover portion which protects the porous portion from a side opposite to the cover.
A tool for determining presence or absence of a neurological condition in a subject, comprising: an ultrasound device configured to collect ultrasound data from a head of the subject, the ultrasound data comprising a first blood flow waveform from a first anatomical portion of the head of the subject and a second blood flow waveform from a second anatomical portion of the head of the subject, the first anatomical portion being different from the second anatomical portion, wherein the first and second blood flow waveforms comprise cerebral blood flow velocity "CBFV" waveforms; and a processing circuit configured to: calculate a curvature metric based on the ultrasound data; calculate a velocity asymmetry metric based on the ultrasound data, wherein the velocity asymmetry metric quantifies a degree to which a first velocity of the first blood flow waveform differs from a second velocity of the second blood flow waveform; compare the curvature metric and the velocity asymmetry metric to a plurality of thresholds; and determine the presence or the absence of the neurological condition in the subject based on said comparison of the curvature metric and the velocity asymmetry metric to said plurality ot thresholds. an ultrasound device configured to collect ultrasound data from a head of the subject, the ultrasound data comprising a first blood flow waveform from a first anatomical portion of the head of the subject and a second blood flow waveform from a second anatomical portion of the head of the subject, the first anatomical portion being different from the second anatomical portion, wherein the first and second blood flow waveforms comprise cerebral blood flow velocity "CBFV" waveforms; and a processing circuit configured to: calculate a curvature metric based on the ultrasound data; calculate a velocity asymmetry metric based on the ultrasound data, wherein the velocity asymmetry metric quantifies a degree to which a first velocity of the first blood flow waveform differs from a second velocity of the second blood flow waveform; compare the curvature metric and the velocity asymmetry metric to a plurality of thresholds; and determine the presence or the absence of the neurological condition in the subject based on said comparison of the curvature metric and the velocity asymmetry metric to said plurality ot thresholds. calculate a curvature metric based on the ultrasound data; calculate a velocity asymmetry metric based on the ultrasound data, wherein the velocity asymmetry metric quantifies a degree to which a first velocity of the first blood flow waveform differs from a second velocity of the second blood flow waveform; compare the curvature metric and the velocity asymmetry metric to a plurality of thresholds; and determine the presence or the absence of the neurological condition in the subject based on said comparison of the curvature metric and the velocity asymmetry metric to said plurality ot thresholds.
Device, in particular an edge gluing machine, for coating the narrow side of plate-shaped workpieces of wood or wood substitutes with a coating material, in particular an edge band, wherein the device has an adhesive application device for applying a fluid adhesive, in particular a molten adhesive, to the narrow side of a workpiece and/or to a coating material, wherein the device further comprises a positioning device characterised in that the positioning device receives the adhesive application device or is designed for the reception thereof, wherein the adhesive application device is capable of being moved in the direction onto the workpiece and/or the coating material, or in an opposite direction thereto, by the positioning device by means of an infeed drive controlled by a control device, wherein the infeed drive has an in particular linear, electromagnetic drive which comprises a primary part, a secondary part, a coil body and a permanent magnet which causes the movement of the adhesive application device by the positioning device through a relative movement of the primary part and secondary part.
Anchoring element for fastening an object to a wall, which consists of solid masonry and an external thermal insulation layer, where the anchoring element encompasses a threaded bolt and an oblong insert part, where the insert part is made of steel and has a central hallow cavity running longitudinally through it, where the cross-section area dimension of the insert part is more than twice as large as the cross-section area dimension of the threaded bolt, and where, in the intended installation condition, the insert part extends through the thermal insulation layer into a hole in the solid masonry and is bonded inside the hole to the solid masonry, where the threaded bolt is oriented parallel to the longitudinal axis of the insert part and extends past the end face of the insert part on the side opposite the solid masonry wall, characterised by the fact that the threaded bolt extends into the insert part by no more than the same distance as the cross-section area dimension of the insert part, and that the central hollow cavity of the insert part contains a thermally insulating insert.