mhurhangee/patent-ind-claim-en huggingface dataset:
An in-vehicle decontamination system , comprising: at least one infrared, IR, sensor ; at least one ultraviolet, UV, emitter having a beam steering module, the UV emitter being configured to emit targeted UV light to areas within a vehicle cabin ; at least one data storage configured to store computer program instructions; and at least one processor communicatively coupled to the at least one data storage , the IR sensor , and the UV emitter , the at least one processor being configured to execute the computer program instructions to perform the following steps, comprising: identifying at least one contaminated area in the vehicle cabin ; determining whether there is a direct line of sight between the UV emitter and the at least one contaminated area; and activating the UV emitter to target the at least one contaminated area when there is the direct line of sight between the UV emitter and the at least one contaminated area; characterized in that the at least one contaminated area is identified based on a temperature profile of the area that is obtained using IR sensor data from the IR sensor . at least one infrared, IR, sensor ; at least one ultraviolet, UV, emitter having a beam steering module, the UV emitter being configured to emit targeted UV light to areas within a vehicle cabin ; at least one data storage configured to store computer program instructions; and at least one processor communicatively coupled to the at least one data storage , the IR sensor , and the UV emitter , the at least one processor being configured to execute the computer program instructions to perform the following steps, comprising: identifying at least one contaminated area in the vehicle cabin ; determining whether there is a direct line of sight between the UV emitter and the at least one contaminated area; and activating the UV emitter to target the at least one contaminated area when there is the direct line of sight between the UV emitter and the at least one contaminated area; characterized in that the at least one contaminated area is identified based on a temperature profile of the area that is obtained using IR sensor data from the IR sensor . identifying at least one contaminated area in the vehicle cabin ; determining whether there is a direct line of sight between the UV emitter and the at least one contaminated area; and activating the UV emitter to target the at least one contaminated area when there is the direct line of sight between the UV emitter and the at least one contaminated area; characterized in that the at least one contaminated area is identified based on a temperature profile of the area that is obtained using IR sensor data from the IR sensor .
Steel sheet provided with a coating comprising at least one layer of pure zinc, optionally including impurities which are unavoidable during production and are present in trace amounts, and a top layer of paint produced by cataphoresis, the layer of zinc being the top coating layer before application of the layer of paint and being produced by a method of jet vapour deposition in a deposition chamber maintained at a pressure P chbre of between 6.10 -2 mbar and 2.10 -1 mbar.
A thermoelectric conversion cell comprising: an insulating member having at least one through hole , and having insulation-side threaded portions at respective end parts of the through hole in a through-direction; a thermoelectric conversion member having at least one thermoelectric conversion element and enclosed in the through hole; and an electrode member having electrode-side threaded portions corresponding to the insulation-side threaded portions respectively connected to end parts of the insulating member and an electrode part electrically connected to an end part of the thermoelectric conversion member in the through hole, wherein the at least one through hole is one; characterised in that out of the insulation-side threaded portions formed at both the end parts of the insulating member, one is a right-hand screw and the other is a left-hand screw. an insulating member having at least one through hole , and having insulation-side threaded portions at respective end parts of the through hole in a through-direction; a thermoelectric conversion member having at least one thermoelectric conversion element and enclosed in the through hole; and an electrode member having electrode-side threaded portions corresponding to the insulation-side threaded portions respectively connected to end parts of the insulating member and an electrode part electrically connected to an end part of the thermoelectric conversion member in the through hole, wherein the at least one through hole is one; characterised in that out of the insulation-side threaded portions formed at both the end parts of the insulating member, one is a right-hand screw and the other is a left-hand screw.
A thermally conductive silicone composition having a compressive stress of 300 MPa or less and a shape retentivity of 90% or more and an initial viscosity at 25°C in the range of 50,000 mPa·s or more and 2,000,000 mPa·s or less, wherein the compressive stress, the shape retentivity and the initial viscosity are measured as disclosed in the description, and comprising: a component (A) that is a diorganopolysiloxane having an alkenyl group bonded to a silicon atom, with a viscosity, at 25°C, of 10 mPa·s or more and 1,000,000 mPa·s or less, wherein the viscosity is measured as disclosed in the description; a component (B) that is a diorganopolysiloxane having a hydrogen atom bonded to a silicon atom, with a viscosity, at 25°C, of 10 mPa·s or more and 1,000,000 mPa·s or less; 0.1 parts by mass or more and 5.0 parts by mass or less relative to 100 parts by mass of the entire silicone composition of a component (C) that is a thermally conductive fibrous inorganic filler which is a basic inorganic fiber; 75 parts by mass or more and 95 parts by mass or less relative to 100 parts by mass of the entire silicone composition of a component (D) that is a thermally conductive spherical filler or a thermally conductive amorphous filler and includes one selected from the group consisting of aluminum hydroxide, boron nitride, aluminum nitride, zinc oxide, aluminum oxide, magnesium oxide, and magnesium hydroxide or is an amphoteric hydroxide or an amphoteric oxide; and a component (E) that is an addition catalyst, wherein the thermally conductive silicone composition is suitable to be applied in a liquid state to a substrate, on which it forms a non-flowable reactant within 120 minutes after being applied. a component (A) that is a diorganopolysiloxane having an alkenyl group bonded to a silicon atom, with a viscosity, at 25°C, of 10 mPa·s or more and 1,000,000 mPa·s or less, wherein the viscosity is measured as disclosed in the description; a component (B) that is a diorganopolysiloxane having a hydrogen atom bonded to a silicon atom, with a viscosity, at 25°C, of 10 mPa·s or more and 1,000,000 mPa·s or less; 0.1 parts by mass or more and 5.0 parts by mass or less relative to 100 parts by mass of the entire silicone composition of a component (C) that is a thermally conductive fibrous inorganic filler which is a basic inorganic fiber; 75 parts by mass or more and 95 parts by mass or less relative to 100 parts by mass of the entire silicone composition of a component (D) that is a thermally conductive spherical filler or a thermally conductive amorphous filler and includes one selected from the group consisting of aluminum hydroxide, boron nitride, aluminum nitride, zinc oxide, aluminum oxide, magnesium oxide, and magnesium hydroxide or is an amphoteric hydroxide or an amphoteric oxide; and a component (E) that is an addition catalyst, wherein the thermally conductive silicone composition is suitable to be applied in a liquid state to a substrate, on which it forms a non-flowable reactant within 120 minutes after being applied.
Resistive random access memory cell based on ionic conduction materials of the CBRAM, "Conductive Bridging RAM", type, based on metal oxide comprising: - a first electrode made of inert material; - a second electrode made of soluble material; - a solid electrolyte , the first and second electrodes being respectively in contact with one of the faces of the electrolyte on either side of said electrolyte, the second electrode being configured to provide movable ions circulating in the solid electrolyte to the first electrode to form a conductive filament between the first and second electrodes when a voltage is applied between the first and second electrodes; said device being made so that the solid electrolyte comprises a region made of an oxide of a first metal element, called "first metal oxide" and in that said region is doped with a second element, distinct from the first metal and configured to form a second oxide, said second element being selected so that the band gap energy of the second oxide is strictly greater than the band gap energy of the first metal oxide, the atomic percent of the second element within the region of the solid electrolyte being of between 5% and 20%. - a first electrode made of inert material; - a second electrode made of soluble material; - a solid electrolyte , the first and second electrodes being respectively in contact with one of the faces of the electrolyte on either side of said electrolyte, the second electrode being configured to provide movable ions circulating in the solid electrolyte to the first electrode to form a conductive filament between the first and second electrodes when a voltage is applied between the first and second electrodes;
Device for monitoring the state of a cable bound electric device , having: a magnetic field sensor which is configured to sense a magnetic field at an electrical feedline of the electrical device ; a memory which is configured to store, for a multiplicity of predetermined operating states of the electrical device , respective reference values for a corresponding magnetic field; a processing device which is configured to compare the magnetic field sensed by the magnetic field sensor , with reference values which is stored in the memory , and to determine an operating state of the electrical device on the basis of the comparison, characterized by an attachment device which is configured to arrange the magnetic field sensor on the feedline of the electrical device , wherein a distance between the feedline of the electrical device and the magnetic field sensor can be set in a multiplicity of defined increments or continuously between a minimum and a maximum distance. a magnetic field sensor which is configured to sense a magnetic field at an electrical feedline of the electrical device ; a memory which is configured to store, for a multiplicity of predetermined operating states of the electrical device , respective reference values for a corresponding magnetic field; a processing device which is configured to compare the magnetic field sensed by the magnetic field sensor , with reference values which is stored in the memory , and to determine an operating state of the electrical device on the basis of the comparison, characterized by an attachment device which is configured to arrange the magnetic field sensor on the feedline of the electrical device , wherein a distance between the feedline of the electrical device and the magnetic field sensor can be set in a multiplicity of defined increments or continuously between a minimum and a maximum distance.
Device for recovering exposure samples (P) for a machine for processing sheet-shaped elements, the processing machine comprising: - a plurality of workstations , including at least one waste discharge station , and - a transportation device comprising a plurality of gripper bars configured to drive the sheet-shaped elements into the workstations , the recovery device being characterised in that it comprises: - a first discharge mat , and - a second discharge mat arranged after the first discharge mat with respect to the direction of movement of the sheets (D), the second discharge mat being able to move between: ∘ a continuous conveying position in which first ends of the first and second discharge mats are brought together such that the waste from sheet-shaped elements (F) can be conveyed from the first discharge mat to the second discharge mat , and ∘ a raised position in which the first end of the second discharge mat has pivoted upwards, creating a gap between the first discharge mat and the second discharge mat , such that at least one exposure sample (P) conveyed by the first discharge mat drops through the gap . - a plurality of workstations , including at least one waste discharge station , and - a transportation device comprising a plurality of gripper bars configured to drive the sheet-shaped elements into the workstations , - a first discharge mat , and - a second discharge mat arranged after the first discharge mat with respect to the direction of movement of the sheets (D), the second discharge mat being able to move between: ∘ a continuous conveying position in which first ends of the first and second discharge mats are brought together such that the waste from sheet-shaped elements (F) can be conveyed from the first discharge mat to the second discharge mat , and ∘ a raised position in which the first end of the second discharge mat has pivoted upwards, creating a gap between the first discharge mat and the second discharge mat , such that at least one exposure sample (P) conveyed by the first discharge mat drops through the gap . ∘ a continuous conveying position in which first ends of the first and second discharge mats are brought together such that the waste from sheet-shaped elements (F) can be conveyed from the first discharge mat to the second discharge mat , and ∘ a raised position in which the first end of the second discharge mat has pivoted upwards, creating a gap between the first discharge mat and the second discharge mat , such that at least one exposure sample (P) conveyed by the first discharge mat drops through the gap .
A process for preparation of catalyst component comprising: (i) contacting magnesium based precursor along with an internal donor based on phenylene dioates with an acyl halides before contact with transition metal compound in a solvent to obtain a solid precatalyst component; and (ii) contacting the solid precatalyst component with transition metal compound to obtain the catalyst component; wherein the internal donor based on phenylene dioates having the following structure (A) wherein R 1 -R 6 groups are equal or different from each other and each of R 1 -R 6 are selected from a group comprising of hydrogen, halogen, C 1 -C 20 linear or branched alkyl group optionally linked with cyclic rings, C 6 -C 14 aryl groups, C 3 -C 15 cycloalkyl groups, C 1 -C 20 alkoxy group, a heteroatom, and combinations thereof, provided that if R 1 is alkoxy, R 2 is not alkoxy and if R 1 is aryl, R 2 is not aryl. (i) contacting magnesium based precursor along with an internal donor based on phenylene dioates with an acyl halides before contact with transition metal compound in a solvent to obtain a solid precatalyst component; and (ii) contacting the solid precatalyst component with transition metal compound to obtain the catalyst component; wherein the internal donor based on phenylene dioates having the following structure (A) wherein R 1 -R 6 groups are equal or different from each other and each of R 1 -R 6 are selected from a group comprising of hydrogen, halogen, C 1 -C 20 linear or branched alkyl group optionally linked with cyclic rings, C 6 -C 14 aryl groups, C 3 -C 15 cycloalkyl groups, C 1 -C 20 alkoxy group, a heteroatom, and combinations thereof, provided that if R 1 is alkoxy, R 2 is not alkoxy and if R 1 is aryl, R 2 is not aryl.
A skin and/or hair depigmentation composition comprising (i) a depigmentation effective amount of a thiophosphate derivative of formula I: or pharmaceutically acceptable salts thereof wherein: R is a C 1 -C 18 saturated or unsaturated, linear, branched, cyclic or aromatic hydrocarbon group, X is selected from the group comprising OH, di-isopropylamine, di-phenylamine, diethylamine, di-methylamine, and (ii) acceptable carriers for topical, oral and/or parenteral administrations. (i) a depigmentation effective amount of a thiophosphate derivative of formula I: or pharmaceutically acceptable salts thereof wherein: R is a C 1 -C 18 saturated or unsaturated, linear, branched, cyclic or aromatic hydrocarbon group, X is selected from the group comprising OH, di-isopropylamine, di-phenylamine, diethylamine, di-methylamine, and R is a C 1 -C 18 saturated or unsaturated, linear, branched, cyclic or aromatic hydrocarbon group, X is selected from the group comprising OH, di-isopropylamine, di-phenylamine, diethylamine, di-methylamine, and (ii) acceptable carriers for topical, oral and/or parenteral administrations.
A polyamide resin composition comprising 0.01 to 50 parts by mass of cellulose fiber in relation to 100 parts by mass of a polyamide resin, having a relative viscosity of 2.3 or more when determined by dissolving the polyamide resin composition in 96 % sulfuric acid in such a way that the concentration of the polyamide after the removal of cellulose is 1 g/dL and by measuring the relative viscosity at 25°C by using an Ubbelohde type viscometer, and having an L-value, an a-value and a b-value in an Lab color space of 20 or more, 10 or less and 20 or less, respectively, when determined in accordance with the method indicated in the description.
A process for production of expanded pellets from a polymer melt comprising a blowing agent, said process comprising the steps of: a. pressing the polymer melt comprising a blowing agent through a perforated disk controlled to a temperature between 150°C and 280°C and into a pelletizing chamber , b. using a cutting device to comminute the polymer melt pressed through the perforated disk into individual expanding pellets, c. discharging the pellets from the pelletizing chamber using a liquid stream , wherein the blowing agent comprises CO 2 or N 2 or a combination of CO 2 and N 2 and the pelletizing chamber is traversed by a stream of liquid which is controlled to a temperature between 10°C and 60°C and the pressure of which is from 0.7 bar to 20 bar above ambient pressure, the pressure and temperature for the liquid in the pelletizing chamber and also the temperature for the perforated disk being chosen such that the pellets are expanded in the pressurized liquid by the blowing agent they contain so as to produce expanded pellets having an uninterrupted skin, the bulk density of the expanded pellets being between 30 g/l and 250 g/l and the temperature of the liquid in the pelletizing chamber being lowered when the pellets undergo an uncontrolled expansion which does not produce an uninterrupted skin and being raised when there is no or insufficient expansion of the pellets and the temperature of the perforated disk being lowered when the pellets undergo an uncontrolled expansion which does not produce an uninterrupted skin and being raised when there is no or insufficient expansion of the pellets. a. pressing the polymer melt comprising a blowing agent through a perforated disk controlled to a temperature between 150°C and 280°C and into a pelletizing chamber , b. using a cutting device to comminute the polymer melt pressed through the perforated disk into individual expanding pellets, c. discharging the pellets from the pelletizing chamber using a liquid stream ,
A method of producing a ceramic manufactured object , comprising repeatedly performing: (i) a step of leveling a ceramic powder to form a powder layer ; and (ii) a step of irradiating the powder layer with a laser beam from a laser based on three-dimensional data to fuse and then solidify an irradiated site; wherein in the step (ii), a surface of the powder layer is irradiated with the laser beam in an unfocused state, characterized in that a ratio D/L, that is a ratio of a fusion depth D to a fusion width L of the powder generated by single irradiation with the laser , falls within a range of 0.2≤D/L≤0.7. (i) a step of leveling a ceramic powder to form a powder layer ; and (ii) a step of irradiating the powder layer with a laser beam from a laser based on three-dimensional data to fuse and then solidify an irradiated site; wherein in the step (ii), a surface of the powder layer is irradiated with the laser beam in an unfocused state, characterized in that a ratio D/L, that is a ratio of a fusion depth D to a fusion width L of the powder generated by single irradiation with the laser , falls within a range of 0.2≤D/L≤0.7. wherein in the step (ii), a surface of the powder layer is irradiated with the laser beam in an unfocused state, characterized in that a ratio D/L, that is a ratio of a fusion depth D to a fusion width L of the powder generated by single irradiation with the laser , falls within a range of 0.2≤D/L≤0.7.
A method of manufacturing a conveyor component , comprising the steps of: inserting a thermoformable substrate into a mold cavity , the mold cavity having a mold surface ; applying pressure and heat to the thermoformable substrate to shape the thermoformable substrate on the mold surface ; removing the pressure and heat when a first surface of the thermoformable substrate is in a ready for bonding state and an opposing second surface of the thermoformable substrate is in a nonbondable state; closing the mold cavity ; and injecting a molten injection moldable material into the mold cavity , such that the molten injection moldable material contacts and bonds to the first surface of the thermoformable substrate while the first surface remains in a bondable state. inserting a thermoformable substrate into a mold cavity , the mold cavity having a mold surface ; applying pressure and heat to the thermoformable substrate to shape the thermoformable substrate on the mold surface ; removing the pressure and heat when a first surface of the thermoformable substrate is in a ready for bonding state and an opposing second surface of the thermoformable substrate is in a nonbondable state; closing the mold cavity ; and injecting a molten injection moldable material into the mold cavity , such that the molten injection moldable material contacts and bonds to the first surface of the thermoformable substrate while the first surface remains in a bondable state.