mhurhangee/ep-ind-claims huggingface dataset:
An electrical fryer comprising: - an inner pot configured to contain oil, - an oil filter configured to filter oil and drain oil contained in inner pot, - an electrical heater, characterized in that it comprises: - a knob mechanism comprising a knob presenting an oil filtering position and at least one heating position; - an oil filtering control mechanism connected between the knob mechanism and the oil filter; - a temperature control mechanism comprising a switch assembly being drivingly connected with the knob mechanism; wherein, the knob is turned so as to switch between the oil filtering position and said at least one heating position, and when the knob is turned to the oil filtering position, the knob mechanism drives the oil filtering control mechanism to open the oil filter and the knob mechanism controls the switch assembly to switch it off so that the electrical heater is not energized, and when the knob is turned to said at least one heating position, the knob mechanism controls the switch assembly to switch it on so that the electrical heater heats the inner pot. - an inner pot configured to contain oil, - an oil filter configured to filter oil and drain oil contained in inner pot, - an electrical heater, - a knob mechanism comprising a knob presenting an oil filtering position and at least one heating position; - an oil filtering control mechanism connected between the knob mechanism and the oil filter; - a temperature control mechanism comprising a switch assembly being drivingly connected with the knob mechanism;
A capacitor comprising: a lower electrode (30, 30a) having a structure in which a first conductive layer (18, 20) containing a first metal, a second conductive layer that is formed on the first conductive layer and made of a metal oxide of a second metal different from the first metal, and a third conductive layer that is formed on the second conductive layer and made of a third metal different from the first metal are formed sequentially on an insulating layer; a dielectric layer formed on the lower electrode; and an upper electrode formed on the capacitor dielectric layer, wherein: the first conductive layer (18, 20) is a stacked layer in which a first metal layer and a first metal oxide layer are formed sequentially; the second metal is platinum, and the second conductive layer is a platinum oxide layer; the third metal is platinum, and the third conductive layer is a platinum layer; the first metal layer is an iridium layer and the first metal oxide layer is an iridium oxide layer; and the dielectric layer is any one of a PZT layer, a PLCSZT layer or a PLZT layer. a lower electrode (30, 30a) having a structure in which a first conductive layer (18, 20) containing a first metal, a second conductive layer that is formed on the first conductive layer and made of a metal oxide of a second metal different from the first metal, and a third conductive layer that is formed on the second conductive layer and made of a third metal different from the first metal are formed sequentially on an insulating layer; a dielectric layer formed on the lower electrode; and an upper electrode formed on the capacitor dielectric layer, wherein: the first conductive layer (18, 20) is a stacked layer in which a first metal layer and a first metal oxide layer are formed sequentially; the second metal is platinum, and the second conductive layer is a platinum oxide layer; the third metal is platinum, and the third conductive layer is a platinum layer; the first metal layer is an iridium layer and the first metal oxide layer is an iridium oxide layer; and the dielectric layer is any one of a PZT layer, a PLCSZT layer or a PLZT layer.
A method for manufacturing a mouthpiece, wherein the mouthpiece is to be placed within an oral cavity to cover teeth and manufactured by an additive manufacturing device, the method comprising: performing additive manufacturing for manufacturing a manufactured product that comprises the mouthpiece, a peripheral portion connected to the mouthpiece, and a plurality of supports configured to support the peripheral portion, and removing the peripheral portion from the manufactured product, wherein the peripheral portion is formed to cover and extend along the gingiva of the oral cavity of a patient, and the plurality of supports are connected to a bottom end of the peripheral portion to support the peripheral portion. performing additive manufacturing for manufacturing a manufactured product that comprises the mouthpiece, a peripheral portion connected to the mouthpiece, and a plurality of supports configured to support the peripheral portion, and removing the peripheral portion from the manufactured product, wherein the peripheral portion is formed to cover and extend along the gingiva of the oral cavity of a patient, and the plurality of supports are connected to a bottom end of the peripheral portion to support the peripheral portion.
Liquid-crystalline medium based on a mixture of polar compounds, characterised in that it comprises at least one compound of the formula I, in which R 1 and R 1 * each, independently of one another, denote an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O-, -O-CO- in such a way that O atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by halogen, and L 1, L 2 and L 3 each, independently of one another, denote F, Cl, CF 3, OCF 3 or CHF 2. R 1 and R 1 * each, independently of one another, denote an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O-, -O-CO- in such a way that O atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by halogen, and L 1, L 2 and L 3 each, independently of one another, denote F, Cl, CF 3, OCF 3 or CHF 2.
An aluminum-based alloy plated steel having excellent corrosion resistance, comprising a base steel and an Fe-Al alloy plating layer formed on a surface of the base steel: wherein the base steel comprises, by wt%, 0.18 to 0.25% of C, 0.1 to 0.5% of Si, 0.9 to 1.5% of Mn, 0.03% or less excluding 0% of P, 0.01% or less excluding 0% of S, 0.01 to 0.05% of Al, 0.01 to 0.5% of Cr, 0.01 to 0.05% of Ti, 0.001 to 0.005% of B, 0.009% or less of N, and a balance of Fe and inevitable impurities, wherein the Fe-AI alloy plating layer comprises, by wt%, 8 to 11% of Si, 3% or less of Fe, a balance of Al and inevitable impurities, wherein the Fe-AI alloy plating layer comprises a middle layer concentrated with Si, and an average grain size of the middle layer is 2 μm or less, wherein a content of Si of the middle layer is 7 to 14 wt%, and wherein the base steel optionally further comprises, by wt%, one or more of Mo and W in a content of 0.001 to 0.5%, one or more of Nb, Zr, and V in a content of 0.001 to 0.4%, one or more of Cu and Ni in a content of 0.005 to 2.0% and one or more of Sb, Sn, and Si in a content of 0.03% or less. wherein the base steel comprises, by wt%, 0.18 to 0.25% of C, 0.1 to 0.5% of Si, 0.9 to 1.5% of Mn, 0.03% or less excluding 0% of P, 0.01% or less excluding 0% of S, 0.01 to 0.05% of Al, 0.01 to 0.5% of Cr, 0.01 to 0.05% of Ti, 0.001 to 0.005% of B, 0.009% or less of N, and a balance of Fe and inevitable impurities, wherein the Fe-AI alloy plating layer comprises, by wt%, 8 to 11% of Si, 3% or less of Fe, a balance of Al and inevitable impurities, wherein the Fe-AI alloy plating layer comprises a middle layer concentrated with Si, and an average grain size of the middle layer is 2 μm or less, wherein a content of Si of the middle layer is 7 to 14 wt%, and wherein the base steel optionally further comprises, by wt%, one or more of Mo and W in a content of 0.001 to 0.5%, one or more of Nb, Zr, and V in a content of 0.001 to 0.4%, one or more of Cu and Ni in a content of 0.005 to 2.0% and one or more of Sb, Sn, and Si in a content of 0.03% or less.
A valve seat configuration comprising: - a valve housing having an interface area configured with at least one valve housing locking-ring groove; - a valve seat body having a flow channel, an inner surface and an outer surface, said outer surface configured to contact said interface area, said outer surface configured with at least one valve seat locking-ring groove circumscribing said valve seat body; and - at least one locking element configured for initial deployment in one of said valve seat locking-ring groove and said valve housing locking-ring groove; characterized in that said valve seat body includes a plurality of spaced apart through bores passing radially through said valve seat body from said valve seat locking-ring groove to said inner surface of said valve seat body, and a plurality of displacement elements inserted into said through bores through openings in said inner surface, and in that said valve housing locking-ring groove includes at least one sloping wall, wherein outward radial displacement of said displacement elements from said inner surface toward said outer surface causes outward radial displacement of said locking element so as to be at least partially deployed in both said valve seat locking-ring groove and said valve housing locking element groove so as to contact said sloping wall so as to draw said valve seat body toward said valve housing, thereby attaching said valve seat to said valve housing. - a valve housing having an interface area configured with at least one valve housing locking-ring groove; - a valve seat body having a flow channel, an inner surface and an outer surface, said outer surface configured to contact said interface area, said outer surface configured with at least one valve seat locking-ring groove circumscribing said valve seat body; and - at least one locking element configured for initial deployment in one of said valve seat locking-ring groove and said valve housing locking-ring groove;
An auto-aligning cable sensor for performing measurements on a medium contained in a vessel, wherein the cable sensor includes: a cable which has an end sensor and which is adapted to be carried by a mounting fixture, the mounting fixture and the vessel being movable into a measurement position relative to each other such that a contact face of the sensor end is held in alignment against a surface of the vessel by a pressing force, thereby enabling the end sensor to sense a characteristic of the medium contained in the vessel; and an elastically deformable coupling member; characterised in that the elastically deformable coupling member is arranged to mediate transfer of the pressing force from the mounting fixture to the cable and thence to the end sensor when the mounting fixture and the vessel are moved into the measurement position, the coupling member deforming under the pressing force such that the cable can flex to tilt the end sensor relative to the surface of the vessel to accommodate misalignment of the contact face and the surface of the vessel. a cable which has an end sensor and which is adapted to be carried by a mounting fixture, the mounting fixture and the vessel being movable into a measurement position relative to each other such that a contact face of the sensor end is held in alignment against a surface of the vessel by a pressing force, thereby enabling the end sensor to sense a characteristic of the medium contained in the vessel; and an elastically deformable coupling member; characterised in that the elastically deformable coupling member is arranged to mediate transfer of the pressing force from the mounting fixture to the cable and thence to the end sensor when the mounting fixture and the vessel are moved into the measurement position, the coupling member deforming under the pressing force such that the cable can flex to tilt the end sensor relative to the surface of the vessel to accommodate misalignment of the contact face and the surface of the vessel.
Device for transmitting and/or receiving electromagnetic signals, comprising: - an antenna array, comprising a plurality of N antenna elements, adapted to transmit and/or receive electromagnetic signals, - a combiner/splitter unit, - a signal processing unit, comprising at least one analog-digital-converter and/or digital-analog-converter (13a3, 13b3, 13c3, 13d3) for each of the antenna elements of the antenna array, and - a switching unit, adapted to switch between a broadband mode and a spatial resolution mode, wherein the switching unit comprises a first switching unit and a second switching unit, wherein the first switching unit is connected to the antenna array by a number N of lines corresponding to the number N of antenna elements, the combiner/splitter unit also by a number N of lines, and the second switching unit also by a number N of lines, wherein the first switching unit is adapted to switch the antenna array between one of the combiner/splitter unit and the second switching unit, wherein the second switching unit is connected to the combiner/splitter unit by a number of N lines, the first switching unit by a number of N lines, and the signal processing unit by a number of N lines, and wherein the second switching unit is adapted to switch the signal processing unit between one of the combiner/splitter unit and the first switching unit. - an antenna array, comprising a plurality of N antenna elements, adapted to transmit and/or receive electromagnetic signals, - a combiner/splitter unit, - a signal processing unit, comprising at least one analog-digital-converter and/or digital-analog-converter (13a3, 13b3, 13c3, 13d3) for each of the antenna elements of the antenna array, and - a switching unit, adapted to switch between a broadband mode and a spatial resolution mode,
A bearing structure for connecting to a front jaw of a downhill binding, characterised in that the bearing structure has an apex which has a distance, in the longitudinal direction, from the front end (1 b) of the sole held in the downhill binding of at least 28 mm and at most 34 mm, and wherein the apex exhibits a perpendicular distance from the upper side of the sole of the ski boot held in the downhill binding of 19 mm ± 2 mm in at least one point, an upper side of the bearing structure is not in contact with the lower side of the sole of the ski boot behind the apex in the skiing direction, and a preferably two-dimensional free space is formed between the upper side of the bearing structure and the lower side of the sole, and in that the free space exhibits a distance from a lower side of a planar sole of the ski boot according to DIN ISO 5355 of at least 5 mm at a distance behind the apex in the skiing direction of 20 mm ± 1 mm.
Method for detecting an anomaly associated with a magnetic locating device, said magnetic locating device comprising a first magnetic element and a second magnetic element that are associated with a first object and with a second object, respectively, the first object comprising a first movement sensor able to determine a first datum (g 1) dependent on the inclination of the first object in a basic reference frame, notably the terrestrial reference frame, the method comprising: • a step of determining the first datum (g 1) from said first movement sensor, • a step of determining a second datum (g 2) dependent on the inclination of the second object in said basic reference frame, • a step of determining at least one orientation parameter with the magnetic locating device using the first and second magnetic elements (1, 2), the orientation parameter being representative of an orientation of the first object relative to the second object, • a step of using said at least one orientation parameter and the first and second data (g 1, g 2) to generate an indicator of presence of the anomaly, the method further comprising a transposition of the first datum and of the second datum to a common coordinate system, such that the anomaly is determined depending on an angle between said transposed first and second data. • a step of determining the first datum (g 1) from said first movement sensor, • a step of determining a second datum (g 2) dependent on the inclination of the second object in said basic reference frame, • a step of determining at least one orientation parameter with the magnetic locating device using the first and second magnetic elements (1, 2), the orientation parameter being representative of an orientation of the first object relative to the second object, • a step of using said at least one orientation parameter and the first and second data (g 1, g 2) to generate an indicator of presence of the anomaly, the method further comprising
An air conditioning system for a vehicle for public transport, said air conditioning system comprising a heat exchanger inside which an air conditioning fluid of an air conditioning circuit circulates, configured to exchange heat with the environment, said air conditioning circuit comprising heating means configured to directly heat at least one of the walls (7a, 7b) of said heat exchanger, said air conditioning system further comprising ventilation means configured to generate an airflow directed towards at least one of the walls (7a, 7b) of said heat exchanger, and being characterised by, said heating means being separated and spaced apart from said heat exchanger and positioned so as not to interfere with said airflow.
A method of manufacturing a head chip having an actuator plate adapted to apply pressure to liquid so as to jet the liquid, the method comprising forming the actuator plate, the step of forming the actuator plate including: forming a plurality of first grooves (C1d) on a surface of a piezoelectric substrate having one end (411E1) and another end (411E2) so as to extend from one end part of the piezoelectric substrate adjacent to the one end toward another end part of the piezoelectric substrate adjacent to the other end, and forming a second groove (C1e) on the surface of the piezoelectric substrate, the second groove being disposed between adjacent first grooves of the plurality of first grooves and the second groove being shorter than the first grooves; forming a conductive film on the surface of the piezoelectric substrate provided with the plurality of first grooves and the second groove; and characterized by forming a laser processing area in the conductive film on a periphery of the second groove, by performing first laser processing from a start point (Ps) on the periphery of the second groove so as to pass between one of the first grooves and the second groove and surround the second groove, and then performing second laser processing to an end point (Pe) different from the start point. forming a plurality of first grooves (C1d) on a surface of a piezoelectric substrate having one end (411E1) and another end (411E2) so as to extend from one end part of the piezoelectric substrate adjacent to the one end toward another end part of the piezoelectric substrate adjacent to the other end, and forming a second groove (C1e) on the surface of the piezoelectric substrate, the second groove being disposed between adjacent first grooves of the plurality of first grooves and the second groove being shorter than the first grooves; forming a conductive film on the surface of the piezoelectric substrate provided with the plurality of first grooves and the second groove; and characterized by forming a laser processing area in the conductive film on a periphery of the second groove, by performing first laser processing from a start point (Ps) on the periphery of the second groove so as to pass between one of the first grooves and the second groove and surround the second groove, and then performing second laser processing to an end point (Pe) different from the start point.
A method for producing resin particles, the method comprising: mixing a binder resin and a dye at temperature T that satisfies formula below to thereby obtain a mixture; and emulsifying the mixture, a basic compound, a water-based solvent, and a surfactant to thereby obtain a resin base particle dispersion: the melting point T1 of the dye ≤ the temperature T ≤ the thermal decomposition temperature T2 of the binder resin. mixing a binder resin and a dye at temperature T that satisfies formula below to thereby obtain a mixture; and emulsifying the mixture, a basic compound, a water-based solvent, and a surfactant to thereby obtain a resin base particle dispersion: the melting point T1 of the dye ≤ the temperature T ≤ the thermal decomposition temperature T2 of the binder resin.
Nickel-based superalloy powder comprising, by mass percent, 14.00 to 15.25% chromium, 14.25 to 15.75% cobalt, 3.9 to 4.5% molybdenum, 4.0 to 4.6% aluminum, 3.0 to 3.7% titanium, 0 to 0.10 copper, 0 to 0.50 iron, 0 to 200 ppm carbon, the remainder consisting of nickel and unavoidable impurities.
A method for decomposing plastic waste, wherein the plastic waste contains polyethylene, comprising: a. adding plastic waste to a reaction vessel, b. adding aqueous nitric acid (HNO 3) to the reaction vessel to give a mixture wherein the nitric acid has a concentration of about 67 to about 70 wt%, wherein "about" means the recited number ± 10%, wherein the wt. ratio of plastic waste to aqueous nitric acid is 1:10 to 1:100, c. subjecting the mixture obtained in b. to conditions effective to decompose the plastic waste to produce decomposition products, wherein the decomposition products comprise: i. succinic acid, glutaric acid, adipic acid, pimelic acid, and azelaic acid, and ii. at least one of C8-C20 dicarboxylic acid substituted with a single nitro group, or the salts or esters thereof. a. adding plastic waste to a reaction vessel, b. adding aqueous nitric acid (HNO 3) to the reaction vessel to give a mixture wherein the nitric acid has a concentration of about 67 to about 70 wt%, wherein "about" means the recited number ± 10%, wherein the wt. ratio of plastic waste to aqueous nitric acid is 1:10 to 1:100, wherein the nitric acid has a concentration of about 67 to about 70 wt%, wherein "about" means the recited number ± 10%, wherein the wt. ratio of plastic waste to aqueous nitric acid is 1:10 to 1:100, c. subjecting the mixture obtained in b. to conditions effective to decompose the plastic waste to produce decomposition products, wherein the decomposition products comprise: i. succinic acid, glutaric acid, adipic acid, pimelic acid, and azelaic acid, and ii. at least one of C8-C20 dicarboxylic acid substituted with a single nitro group, or the salts or esters thereof. wherein the decomposition products comprise: i. succinic acid, glutaric acid, adipic acid, pimelic acid, and azelaic acid, and ii. at least one of C8-C20 dicarboxylic acid substituted with a single nitro group, i. succinic acid, glutaric acid, adipic acid, pimelic acid, and azelaic acid, and ii. at least one of C8-C20 dicarboxylic acid substituted with a single nitro group, or the salts or esters thereof.