mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a unit dose capsule for treatment of a substrate, the method comprising steps: a. placing a first sheet of water-soluble polyvinyl alcohol film over a mould having sets of cavities, each set comprising three cavities arranged on the sealing plane one after the other in circumferential direction; b. heating and applying vacuum to the film to mould the film into the cavities and hold it in place to form three recesses in the film; a first recess, the second recess, and a third recess, the three recesses being connected to respective side recesses by the film; c. filling three different parts of a substrate treatment composition into the three recesses (502, 503, 504), the three parts together forming a full substrate treatment composition; d. sealing a second sheet of film to the first sheet of film across the formed recesses to form the sealing web comprising a peripheral sealing skirt and inter-compartment sealing webs (1024, 1023, 1034) having average sealing width in the range of 0.3 to 3 mm between compartments and a central sealing web thereby separating the compartments (102, 103, 104) from one another to produce a three compartment capsule; and e. cutting between the capsules so that a series of three compartment capsules are formed, each capsule containing a part of a substrate treatment composition in three compartments (102, 103, 104). a. placing a first sheet of water-soluble polyvinyl alcohol film over a mould having sets of cavities, each set comprising three cavities arranged on the sealing plane one after the other in circumferential direction; b. heating and applying vacuum to the film to mould the film into the cavities and hold it in place to form three recesses in the film; a first recess, the second recess, and a third recess, the three recesses being connected to respective side recesses by the film; c. filling three different parts of a substrate treatment composition into the three recesses (502, 503, 504), the three parts together forming a full substrate treatment composition; d. sealing a second sheet of film to the first sheet of film across the formed recesses to form the sealing web comprising a peripheral sealing skirt and inter-compartment sealing webs (1024, 1023, 1034) having average sealing width in the range of 0.3 to 3 mm between compartments and a central sealing web thereby separating the compartments (102, 103, 104) from one another to produce a three compartment capsule; and e. cutting between the capsules so that a series of three compartment capsules are formed, each capsule containing a part of a substrate treatment composition in three compartments (102, 103, 104).
An apparatus of a base station, BS (102, 103), in a wireless communications network comprising a plurality of BSs, the apparatus comprising: a receiver configured to receive feedback information from at least one user equipment, UE (115, 116), characterised in that the feedback information includes information regarding at least one of a recommended codebook set or a restricted codebook set; and a controller configured to identify the at least one of the recommended codebook set or the restricted codebook set and select a codebook vector based on the identified at least one of the recommended codebook set or the restricted codebook set in order to avoid interference, wherein the recommended codebook set includes at least one codebook vector that causes an interference in received signals of the at least one UE from at least one serving BS to be less than a threshold, and wherein the restricted codebook set includes at least one codebook vector that causes an interference in received signals of the at least one UE from the at least one serving BS to be greater that the threshold. a receiver configured to receive feedback information from at least one user equipment, UE (115, 116), characterised in that the feedback information includes information regarding at least one of a recommended codebook set or a restricted codebook set; and a controller configured to identify the at least one of the recommended codebook set or the restricted codebook set and select a codebook vector based on the identified at least one of the recommended codebook set or the restricted codebook set in order to avoid interference, wherein the recommended codebook set includes at least one codebook vector that causes an interference in received signals of the at least one UE from at least one serving BS to be less than a threshold, and wherein the restricted codebook set includes at least one codebook vector that causes an interference in received signals of the at least one UE from the at least one serving BS to be greater that the threshold.
A method of generating a surround sound field, the method comprising: receiving audio signals captured by a plurality of audio capturing devices; estimating a topology of the plurality of audio capturing devices; and generating the surround sound field from the received audio signals at least partially based on the estimated topology, wherein generating the surround sound field comprises applying Ambisonics or B-format processing to the audio signals, and is characterized by further comprising: determining a topology template matching the estimated topology of the plurality of audio capturing devices; selecting weights for the audio signals at least partially based on the determined topology template; and processing the audio signals using the selected weights to generate the surround sound field. receiving audio signals captured by a plurality of audio capturing devices; estimating a topology of the plurality of audio capturing devices; and generating the surround sound field from the received audio signals at least partially based on the estimated topology, wherein generating the surround sound field comprises applying Ambisonics or B-format processing to the audio signals, and is characterized by further comprising: determining a topology template matching the estimated topology of the plurality of audio capturing devices; selecting weights for the audio signals at least partially based on the determined topology template; and processing the audio signals using the selected weights to generate the surround sound field. determining a topology template matching the estimated topology of the plurality of audio capturing devices; selecting weights for the audio signals at least partially based on the determined topology template; and processing the audio signals using the selected weights to generate the surround sound field.
Method for producing a PTC heating element, having a PTC element and contact plates (2a, 2b) for contacting face side surfaces of said PTC element in an electrically conductive manner, in which method the contact plates (2a, 2b) are initially connected to one another by way of electrically insulating bridge elements (12, 14) while leaving free a seat for said PTC element, then the PTC element is inserted into the seat and finally deforming the contact plates (2a, 2b)in order to form a contact projection abutting against one of said face side surfaces of the PCT element.
Method for determining a classification of a condition of a road surface for vehicle traffic, said method comprising: defining a reference surface of said road surface ahead of the vehicle; illuminating said reference surface with at least one light source positioned on the vehicle; detecting light which is reflected off said reference surface; and determining said classification of the condition of the road surface by analyzing detected information related to said reference surface; characterized in that the method comprises the following steps: illuminating said reference surface by means of laser light; providing image information related to said reference surface by detecting said reflected light by means of an NIR camera; providing further image information related to said reference surface by scanning said reference surface by means of an RGB sensor; and determining said classification of the road surface by superposing image information related to said reference surface from said NIR camera and said RGB sensor. defining a reference surface of said road surface ahead of the vehicle; illuminating said reference surface with at least one light source positioned on the vehicle; detecting light which is reflected off said reference surface; and determining said classification of the condition of the road surface by analyzing detected information related to said reference surface; illuminating said reference surface by means of laser light; providing image information related to said reference surface by detecting said reflected light by means of an NIR camera; providing further image information related to said reference surface by scanning said reference surface by means of an RGB sensor; and determining said classification of the road surface by superposing image information related to said reference surface from said NIR camera and said RGB sensor.
Aqueous sol containing silica-based particles, characterised in that it has an S-value within the range of from 10 to 45%, a viscosity within the range of from 5 to 40 mPa.s (5 to 40 cP) and a silica content of at least 10% by weight.
Method for obtaining flavourings comprising the steps of enriching a gaseous composition with at least one flavouring by contacting the gaseous composition with a liquid containing the at least one flavouring; contacting the gaseous composition containing at least one flavouring with an adsorber, wherein the adsorber comprises a molecular sieve having a pore diameter of at most 8 Å; contacting the gaseous composition according to step with a liquid, wherein the liquid containing the at least one flavouring is fruit juice and/or a fermented liquid. enriching a gaseous composition with at least one flavouring by contacting the gaseous composition with a liquid containing the at least one flavouring; contacting the gaseous composition containing at least one flavouring with an adsorber, wherein the adsorber comprises a molecular sieve having a pore diameter of at most 8 Å; contacting the gaseous composition according to step with a liquid,
Cleaning device for cleaning washware, comprising at least one cleaning chamber with at least one application device for applying at least one cleaning liquid to the washware in the cleaning chamber, furthermore comprising at least one transportation device for transporting the washware through the cleaning chamber in a transportation direction, wherein the cleaning device has at least one outlet region, which is arranged downstream of the cleaning chamber in the transportation direction, for removing the washware from the transportation device, and wherein the cleaning device furthermore has at least one sensor for identifying at least one prespecified type of washware, characterized in that the cleaning device furthermore has at least one slide and is designed to automatically push the washware of the prespecified type from the transportation device transversely to the transportation direction.
An apparatus for determining a three-dimensional orientation of a human head, the apparatus comprising: a headband positionable on a patient's head; a pair of temple elements (10, 11), each temple element being secured to the headband; and a front housing rotatably attached to said temple elements, said front housing including two cameras, each of said two cameras (2, 3) being positioned within said front housing such that its view field picks up a left and a right anthropological baseline interposed onto a patient's face and connecting an orbitale point and an auricular point on one side of the patient's head, said front housing further comprising a 3D compass configured to be positioned into a measuring plane coinciding with a plane formed by a left and right anthropological baselines when said two baselines are parallel and aligned, said 3D compass being further configured to quantitatively measure a three-dimensional orientation of the patient's head when said 3D compass is positioned in said measuring plane, the 3D compass 1 lying on a plane perpendicular to a vertical axis of the two cameras, the two cameras being located on the left and on the right sides, respectively, of the 3D compass. a headband positionable on a patient's head; a pair of temple elements (10, 11), each temple element being secured to the headband; and a front housing rotatably attached to said temple elements,
An induction heating type cooktop, comprising: a case; a cover plate that is coupled to an upper end of the case and that includes an upper plate arranged to receive a target object; a working coil (WC1, WC2) that is disposed in the case and that is configured to heat the target object; a thermal insulation material disposed on the working coil (WC1, WC2); and characterized by a heating thin film coating (TL1, TL2) that is disposed on a surface of the upper plate or a surface of the thermal insulation material and that has a stacked structure in which an adhesive layer and a heating layer are consecutively stacked, wherein the adhesive layer is a component for attaching the upper plate or the thermal insulation material to the heating layer and includes at least one of an inorganic material or a metal oxide. a case; a cover plate that is coupled to an upper end of the case and that includes an upper plate arranged to receive a target object; a working coil (WC1, WC2) that is disposed in the case and that is configured to heat the target object; a thermal insulation material disposed on the working coil (WC1, WC2); and characterized by a heating thin film coating (TL1, TL2) that is disposed on a surface of the upper plate or a surface of the thermal insulation material and that has a stacked structure in which an adhesive layer and a heating layer are consecutively stacked, wherein the adhesive layer is a component for attaching the upper plate or the thermal insulation material to the heating layer and includes at least one of an inorganic material or a metal oxide.
A multilayer film structure comprising a top encapsulation Layer A, a bottom Layer C and a tie Layer B between Layer A and Layer C, the multilayer film structure being characterized in that: Layer A comprises a resin selected from the group consisting of A1) polyolefin-based resins, A2) polar ethylene copolymer resins, and A3) poly(vinyl butyral) resins; Layer B comprises a blend comprising one or more polyolefins selected from an ethylene octene copolymer plastomer or elastomer, LLDPE and LDPE; and greater than 40 weight percent of a crystalline block copolymer composite, said CBC comprising: i) from 0.5 to 49 wt%, based on the total weight of the CBC, of a crystalline ethylene polymer comprising greater than 90 mol% polymerized ethylene; ii) from 0.5 to 49 wt%, based on the total weight of the CBC, of crystalline propylene-based polymer comprising greater than 90 mol% polymerized propylene; and iii) from 50 to 99 wt%, based on the total weight of the CBC, of a diblock copolymer comprising (a) a crystalline ethylene polymer block (CEPB) comprising greater than 90 mol% polymerized ethylene and (b) a crystalline propylene-based polymer block (CPPB) comprising greater than 90 mol% polymerized propylene; and Layer C comprises a propylene-based polymer having at least one melting point greater than 125°C. Layer A comprises a resin selected from the group consisting of A1) polyolefin-based resins, A2) polar ethylene copolymer resins, and A3) poly(vinyl butyral) resins; Layer B comprises a blend comprising one or more polyolefins selected from an ethylene octene copolymer plastomer or elastomer, LLDPE and LDPE; and greater than 40 weight percent of a crystalline block copolymer composite, said CBC comprising: i) from 0.5 to 49 wt%, based on the total weight of the CBC, of a crystalline ethylene polymer comprising greater than 90 mol% polymerized ethylene; ii) from 0.5 to 49 wt%, based on the total weight of the CBC, of crystalline propylene-based polymer comprising greater than 90 mol% polymerized propylene; and iii) from 50 to 99 wt%, based on the total weight of the CBC, of a diblock copolymer comprising (a) a crystalline ethylene polymer block (CEPB) comprising greater than 90 mol% polymerized ethylene and (b) a crystalline propylene-based polymer block (CPPB) comprising greater than 90 mol% polymerized propylene; and i) from 0.5 to 49 wt%, based on the total weight of the CBC, of a crystalline ethylene polymer comprising greater than 90 mol% polymerized ethylene; ii) from 0.5 to 49 wt%, based on the total weight of the CBC, of crystalline propylene-based polymer comprising greater than 90 mol% polymerized propylene; and iii) from 50 to 99 wt%, based on the total weight of the CBC, of a diblock copolymer comprising (a) a crystalline ethylene polymer block (CEPB) comprising greater than 90 mol% polymerized ethylene and (b) a crystalline propylene-based polymer block (CPPB) comprising greater than 90 mol% polymerized propylene; and Layer C comprises a propylene-based polymer having at least one melting point greater than 125°C.
A photoresist residue removal composition, consisting of: 25 wt% to 40 wt% glycolic acid, 60 wt% to 75 wt% water, and a pH control agent of 5 to 50 parts by weight, based on 100 parts by weight of a mixture of glycolic acid and water, which adjusts the pH of the composition to a range from 4 to 10, and which includes one selected from monoethanolamine, isopropanolamine, 2-(2 aminoethoxy)ethanol, and tetrahydrofurfurylamine, and a cleanability improver of 10 to 70 parts by weight, based on 100 parts by weight of a mixture of glycolic acid and water, which includes one selected from diethyleneglycolmonoethylether, diethyleneglycolmonomethylether, diethyleneglycolmonobutylether, triethyleneglycolether, and tetrahydrofurfurylalcohol. 25 wt% to 40 wt% glycolic acid, 60 wt% to 75 wt% water, and a pH control agent of 5 to 50 parts by weight, based on 100 parts by weight of a mixture of glycolic acid and water, which adjusts the pH of the composition to a range from 4 to 10, and which includes one selected from monoethanolamine, isopropanolamine, 2-(2 aminoethoxy)ethanol, and tetrahydrofurfurylamine, and a cleanability improver of 10 to 70 parts by weight, based on 100 parts by weight of a mixture of glycolic acid and water, which includes one selected from diethyleneglycolmonoethylether, diethyleneglycolmonomethylether, diethyleneglycolmonobutylether, triethyleneglycolether, and tetrahydrofurfurylalcohol.
A method for enhancing the performance of a work vehicle, the method comprising: - storing a reference transmission torque and a reference transmission speed for a transmission of the work vehicle, at least one of the reference transmission torque or the reference transmission speed being determined based at least in part on drivetrain life data associated with at least one drivetrain component of the work vehicle; - determining a current transmission speed for the transmission; - determining a transmission output torque limit for the transmission based on the current transmission speed, the reference transmission torque and the reference transmission speed; and - controlling an engine of the work vehicle such that a transmission output torque of the transmission does not exceed the transmission output torque limit while the transmission is being operated at the current transmission speed. - storing a reference transmission torque and a reference transmission speed for a transmission of the work vehicle, at least one of the reference transmission torque or the reference transmission speed being determined based at least in part on drivetrain life data associated with at least one drivetrain component of the work vehicle; - determining a current transmission speed for the transmission; - determining a transmission output torque limit for the transmission based on the current transmission speed, the reference transmission torque and the reference transmission speed; and - controlling an engine of the work vehicle such that a transmission output torque of the transmission does not exceed the transmission output torque limit while the transmission is being operated at the current transmission speed.
A nanoassembly system comprising - a nanoassembly comprising: ∘ an organic fluorescent inner core comprising fluorescent organic molecules, and ∘ magnetic nanoparticles contacting the surface of said fluorescent inner core; and - at least one polymer adsorbed at the surface of the nanoassembly; provided that the nanoassembly system does not comprise silica, functionalized silica, doped silica, grafted silica or a combination thereof, wherein the fluorescent organic molecules are compounds of Formula, wherein: L represents a spacer selected from (i), (ii) and (iii) X represents O, CH 2 or NR 8, wherein R 8 represents H, alkyl or alkene; X' represents O or NR 9, wherein R 9 represents H, alkyl or alkene; n represents an integer selected from 1, 2, 3 and 4; R 1 represents -CO 2 H or -P 2; R 2, R 3, R 4, R 5, R 6 and R 7 represent each independently an optionally functionalized group selected from alkyl and ester or poly(ethylene glycol), preferably R 2, R 3, R 4, R 5, R 6 and R 7 represent each a methyl group, and wherein the magnetic nanoparticles are selected from the group consisting of γ-Fe 2 O 3, Fe 3 O 4, CoFe 2 O 4, MnFe 2 O 4, CuFe 2 O 4 and NiFe 2 O 4. - a nanoassembly comprising: ∘ an organic fluorescent inner core comprising fluorescent organic molecules, and ∘ magnetic nanoparticles contacting the surface of said fluorescent inner core; and ∘ an organic fluorescent inner core comprising fluorescent organic molecules, and ∘ magnetic nanoparticles contacting the surface of said fluorescent inner core; and - at least one polymer adsorbed at the surface of the nanoassembly; provided that the nanoassembly system does not comprise silica, functionalized silica, doped silica, grafted silica or a combination thereof, wherein the fluorescent organic molecules are compounds of Formula, wherein: L represents a spacer selected from (i), (ii) and (iii) X represents O, CH 2 or NR 8, wherein R 8 represents H, alkyl or alkene; X' represents O or NR 9, wherein R 9 represents H, alkyl or alkene; n represents an integer selected from 1, 2, 3 and 4; R 1 represents -CO 2 H or -P 2; R 2, R 3, R 4, R 5, R 6 and R 7 represent each independently an optionally functionalized group selected from alkyl and ester or poly(ethylene glycol), preferably R 2, R 3, R 4, R 5, R 6 and R 7 represent each a methyl group, and wherein the magnetic nanoparticles are selected from the group consisting of γ-Fe 2 O 3, Fe 3 O 4, CoFe 2 O 4, MnFe 2 O 4, CuFe 2 O 4 and NiFe 2 O 4. L represents a spacer selected from (i), (ii) and (iii) X represents O, CH 2 or NR 8, wherein R 8 represents H, alkyl or alkene; X' represents O or NR 9, wherein R 9 represents H, alkyl or alkene; n represents an integer selected from 1, 2, 3 and 4; R 1 represents -CO 2 H or -P 2; R 2, R 3, R 4, R 5, R 6 and R 7 represent each independently an optionally functionalized group selected from alkyl and ester or poly(ethylene glycol), preferably R 2, R 3, R 4, R 5, R 6 and R 7 represent each a methyl group, and wherein the magnetic nanoparticles are selected from the group consisting of γ-Fe 2 O 3, Fe 3 O 4, CoFe 2 O 4, MnFe 2 O 4, CuFe 2 O 4 and NiFe 2 O 4.