mhurhangee/patent-ind-claim-en huggingface dataset:
A wall element for use in building construction, the wall element comprising: - a first panel having a first side face , a second side face opposite said first side face , the second side face being attached to a first side face of a second panel ; - said second panel having said first side face and a second side face opposite said first side face ; wherein said first panel comprises a thermoplastic material and said second panel comprises a corrugated sheet material with at least one crest and at least one corrugation ; characterised in that said second panel further comprises a plurality of openings ; wherein at least a first part of the plurality of openings of said second panel is situated at the at least one crest of said corrugated sheet material such as to accommodate at least part of said thermoplastic material, thereby forming a connection between said first panel and said second panel . - a first panel having a first side face , a second side face opposite said first side face , the second side face being attached to a first side face of a second panel ; - said second panel having said first side face and a second side face opposite said first side face ; wherein said first panel comprises a thermoplastic material and said second panel comprises a corrugated sheet material with at least one crest and at least one corrugation ; characterised in that said second panel further comprises a plurality of openings ; wherein at least a first part of the plurality of openings of said second panel is situated at the at least one crest of said corrugated sheet material such as to accommodate at least part of said thermoplastic material, thereby forming a connection between said first panel and said second panel .
A high-performance combustion device , comprising: a vessel with two distinct sections, specifically a lower section and an upper section , wherein the lower section is configured to contain a turbulent fluidized catalyst bed in which oil and coke of spent catalyst are burned, one or more pipe-grid distributors configured to supply therethrough fluidization and burning air to the lower section of the fluidized bed , an inclined tubing or spent-catalyst standpipe configured to feed therethrough the spent catalyst , and a regenerated-catalyst standpipe configured to remove therethrough the heated and regenerated catalyst from the fluidized bed , wherein the regenerated-catalyst standpipe is located in the lower section of the fluidized bed , characterized by : a plurality of high-performance spray nozzles installed at the extremity of lances , the plurality of spray nozzles being configured to supply therethrough heating oil , wherein the lances are located inside the lower section of the fluidized bed and above the pipe-grid distributors , and wherein the lances extend at different lengths from the periphery of the lower section of the vessel in order to facilitate the complete distribution of the heating oil sprayed along the cross section of the combustion device . a vessel with two distinct sections, specifically a lower section and an upper section , wherein the lower section is configured to contain a turbulent fluidized catalyst bed in which oil and coke of spent catalyst are burned, one or more pipe-grid distributors configured to supply therethrough fluidization and burning air to the lower section of the fluidized bed , an inclined tubing or spent-catalyst standpipe configured to feed therethrough the spent catalyst , and a regenerated-catalyst standpipe configured to remove therethrough the heated and regenerated catalyst from the fluidized bed , wherein the regenerated-catalyst standpipe is located in the lower section of the fluidized bed , characterized by : a plurality of high-performance spray nozzles installed at the extremity of lances , the plurality of spray nozzles being configured to supply therethrough heating oil , wherein the lances are located inside the lower section of the fluidized bed and above the pipe-grid distributors , and wherein the lances extend at different lengths from the periphery of the lower section of the vessel in order to facilitate the complete distribution of the heating oil sprayed along the cross section of the combustion device . a plurality of high-performance spray nozzles installed at the extremity of lances , the plurality of spray nozzles being configured to supply therethrough heating oil , wherein the lances are located inside the lower section of the fluidized bed and above the pipe-grid distributors , and wherein the lances extend at different lengths from the periphery of the lower section of the vessel in order to facilitate the complete distribution of the heating oil sprayed along the cross section of the combustion device .
An induction heating assembly for a vapour generating device , the heating assembly comprising: an outer body; an induction coil arranged inward of the outer body; a heating compartment defined inward of the induction coil and arranged to receive, in use, a body comprising a vaporisable substance and an induction heatable susceptor ; a separation between the outer body and the induction coil defining an air vent arranged to allow air flow around the induction coil and to the heating compartment, the induction heating assembly further comprising ribs supporting and in mechanical connection with the outer body and induction coil, the ribs dividing the air vent into segments . an outer body; an induction coil arranged inward of the outer body; a heating compartment defined inward of the induction coil and arranged to receive, in use, a body comprising a vaporisable substance and an induction heatable susceptor ; a separation between the outer body and the induction coil defining an air vent arranged to allow air flow around the induction coil and to the heating compartment, the induction heating assembly further comprising ribs supporting and in mechanical connection with the outer body and induction coil, the ribs dividing the air vent into segments .
Installation for sterilizing by radiation cylindrical articles of circular section , the installation comprising: a radiation-generator device and an article support device disposed facing the radiation-generator device, the article support device comprising a stationary frame including an annular track , the article support device also comprising a rotary platform that is mounted to turn about the axis of symmetry of the annular track , the rotary platform comprising recesses overlying the annular track and being dimensioned so that a cylindrical article of circular section is engaged in a recess and rests on the annular track , and that the axis of symmetry of the cylindrical article of circular section extends radially with respect to the annular track , the rotary platform being arranged for moving the cylindrical articles of circular section that are engaged in the recesses with their axis of symmetry extending radially with respect to the annular track and that rest on the annular track , the move being realized in front of the radiation-generator device by rotating the rotary platform about an axis of symmetry of the annular track . a radiation-generator device and an article support device disposed facing the radiation-generator device, the article support device comprising a stationary frame including an annular track , the article support device also comprising a rotary platform that is mounted to turn about the axis of symmetry of the annular track , the rotary platform comprising recesses overlying the annular track and being dimensioned so that a cylindrical article of circular section is engaged in a recess and rests on the annular track , and that the axis of symmetry of the cylindrical article of circular section extends radially with respect to the annular track , the rotary platform being arranged for moving the cylindrical articles of circular section that are engaged in the recesses with their axis of symmetry extending radially with respect to the annular track and that rest on the annular track , the move being realized in front of the radiation-generator device by rotating the rotary platform about an axis of symmetry of the annular track .
A computer-implemented method of estimating lung volume from radiographic images, the method comprising: registering a two dimensional radiographic image of a patient's chest to a three dimensional radiographic image of the patient's chest to estimate data describing projection geometry of an imaging setup used to capture the two dimensional radiographic image; using the projection geometry to estimate at least one radiographic magnification factor relating to the imaging setup; and calculating an estimated lung volume using the two dimensional radiographic image and the at least one radiographic magnification factor . registering a two dimensional radiographic image of a patient's chest to a three dimensional radiographic image of the patient's chest to estimate data describing projection geometry of an imaging setup used to capture the two dimensional radiographic image; using the projection geometry to estimate at least one radiographic magnification factor relating to the imaging setup; and calculating an estimated lung volume using the two dimensional radiographic image and the at least one radiographic magnification factor .
A labeled fatty acid derivative represented by formula (I) or a salt thereof, wherein any one of R 1 to R 3 is 18 F, the other two are H, and Me is a methyl group.
Method for guiding a person having mobile communication equipment (EC) and having reserved a vehicle (VR), said vehicle being parked in a parking position and comprising a wave communication module (MCN) and at least one light source (SL) installed externally and producing a signalling light when said module (MCN) detects said communication equipment (EC) in its vicinity, the method being characterised in that it comprises a step in which, said communication equipment (EC) comprising navigational aid means (MAN) determining its current position, a definition of said signalling light is transmitted to said communication equipment (EC) so that it provides it to said person and said parking position so that said navigational aid means (MAN) provides said person with information to guide him/her towards said vehicle (VR) so that, once he/she has reached the proximity of the latter (VR), he/she is identified by said signalling light produced by said light source (SL).
A signal processing circuit comprising: a first signal processor comprising a low pass filter and configured to receive a first input signal and to process the first input signal with the low pass filter to produce a first output signal suitable for driving a first headphone speaker; a second signal processor comprising a low pass filter and configured to receive a second input signal and to process the second input signal with the low pass filter to produce a second output signal suitable for driving a second headphone speaker; a third signal processor configured to receive the first input signal and/or the second input signal and to produce, based on the received signal or signals, a third output signal suitable for driving a first loudspeaker; and simultaneously provide the first output signal to the first headphone speaker, the second output signal to the second headphone speaker, and the third output signal to the first loudspeaker. a first signal processor comprising a low pass filter and configured to receive a first input signal and to process the first input signal with the low pass filter to produce a first output signal suitable for driving a first headphone speaker; a second signal processor comprising a low pass filter and configured to receive a second input signal and to process the second input signal with the low pass filter to produce a second output signal suitable for driving a second headphone speaker; a third signal processor configured to receive the first input signal and/or the second input signal and to produce, based on the received signal or signals, a third output signal suitable for driving a first loudspeaker; and simultaneously provide the first output signal to the first headphone speaker, the second output signal to the second headphone speaker, and the third output signal to the first loudspeaker.
A copolycarbonate, comprising: an aromatic polycarbonate-based first repeating unit, an aromatic polycarbonate-based second repeating unit having at least one siloxane bond, and an aromatic polycarbonate-based third repeating unit having at least one siloxane bond containing fluoro-substituted C 1-15 alkyl, wherein the copolycarbonate has YI (Yellow Index) of 1 to 3.9 in accordance with ASTM D1925, and the copolycarbonate has impact strength at low temperature of 700 to 1000 J/m, measured at -30 °C in accordance with ASTM D256 (1/8 inch, Notched Izod). an aromatic polycarbonate-based first repeating unit, an aromatic polycarbonate-based second repeating unit having at least one siloxane bond, and an aromatic polycarbonate-based third repeating unit having at least one siloxane bond containing fluoro-substituted C 1-15 alkyl, wherein the copolycarbonate has YI (Yellow Index) of 1 to 3.9 in accordance with ASTM D1925, and the copolycarbonate has impact strength at low temperature of 700 to 1000 J/m, measured at -30 °C in accordance with ASTM D256 (1/8 inch, Notched Izod).
A device for igniting a sample contained in a container for a flash point determination test and/or a fire point determination test, comprising: an electric igniter having an ignition tip with an encapsulated electric wire ; and a traversing device adapted to traverse the ignition tip of the electric igniter to a defined position (ze, zg) within the container , characterized in that the electric wire is encapsulated in such a way that the sample in the liquid and/or in the gaseous state does not directly contact the wire . an electric igniter having an ignition tip with an encapsulated electric wire ; and a traversing device adapted to traverse the ignition tip of the electric igniter to a defined position (ze, zg) within the container , characterized in that the electric wire is encapsulated in such a way that the sample in the liquid and/or in the gaseous state does not directly contact the wire .
A method for software code analysis, comprising: receiving, into a memory of a computer , source code of an application program, which includes one or more calls from respective entry points in the source code to at least one library program; automatically analyzing the source code in the computer in order to generate a first data flow graph (DFG), representing a flow of data to be engendered upon running the application program; identifying one or more vulnerabilities in the at least one library program; automatically analyzing the at least one library program to generate at least one second DFG linking at least one of the entry points in the source code to at least one of the vulnerabilities; combining the first DFG with the at least one second DFG in order to track the flow of data from the application program to the at least one of the vulnerabilities; and reporting, responsively to the tracked flow, that the at least one of the vulnerabilities is exploitable. receiving, into a memory of a computer , source code of an application program, which includes one or more calls from respective entry points in the source code to at least one library program; automatically analyzing the source code in the computer in order to generate a first data flow graph (DFG), representing a flow of data to be engendered upon running the application program; identifying one or more vulnerabilities in the at least one library program; automatically analyzing the at least one library program to generate at least one second DFG linking at least one of the entry points in the source code to at least one of the vulnerabilities; combining the first DFG with the at least one second DFG in order to track the flow of data from the application program to the at least one of the vulnerabilities; and reporting, responsively to the tracked flow, that the at least one of the vulnerabilities is exploitable.
A hydroxypropyl methyl cellulose phthalate, wherein the degree of substitution of phthalyl groups is from 0.02 to 0.18, the degree of neutralization of phthalyl groups is not more than 0.75, wherein the degree of neutralization = [-C(O)-C 6 H 4 -COO - ] / [-C(O)-C 6 H 4 -COO - +-C(O)-C 6 H 4 -COOH], and the hydroxypropyl methyl cellulose phthalate has a solubility in water of at least 2.0 weight percent at 2 °C. the degree of substitution of phthalyl groups is from 0.02 to 0.18, the degree of neutralization of phthalyl groups is not more than 0.75, wherein the degree of neutralization = [-C(O)-C 6 H 4 -COO - ] / [-C(O)-C 6 H 4 -COO - +-C(O)-C 6 H 4 -COOH], and the hydroxypropyl methyl cellulose phthalate has a solubility in water of at least 2.0 weight percent at 2 °C.
A method of making an aqueous MICR inkjet ink comprising: mixing a magnetic iron oxide with cobalt doping pigment nano powder at between 20% to 60% by weight with humectant at between 5% to 30% by weight, a polymer dispersant, a defoamer and water to create a dispersion; milling the dispersion in a wet media mill to obtain a milled emulsion having an average particle size less than 200 nm; and adding humectant, surfactant and/or solvent to the milled emulsion. mixing a magnetic iron oxide with cobalt doping pigment nano powder at between 20% to 60% by weight with humectant at between 5% to 30% by weight, a polymer dispersant, a defoamer and water to create a dispersion; milling the dispersion in a wet media mill to obtain a milled emulsion having an average particle size less than 200 nm; and adding humectant, surfactant and/or solvent to the milled emulsion.
A computer-implemented method for producing a message authentication tag , the method comprising: obtaining a message ; segmenting , by an electronic processor , the message into a number of equal sized message blocks comprising a first message block , one or more subsequent message blocks , and a final message block ; performing , by the electronic processor, a first bit-mixing operation on the first message block with an initialization value ; performing , by the electronic processor, subsequent bit-mixing operations on the one or more subsequent message blocks and the final message block with a previous message block; producing , by the electronic processor, the message authentication tag based on the first bit-mixing operation and the subsequent bit-mixing operations; wherein the step of producing the message authentication tag comprises: performing a final bit-mixing operation on an output of the bit-mixing operation on the final message block and a concatenation of a length (A) of authentication data and a length (C) of encrypted text blocks; and performing an exclusive OR operation with an output of the final bit-mixing operation and an encrypted null counter that is encrypted using a block encryption algorithm, under a secret key, to produce the message authentication tag. obtaining a message ; segmenting , by an electronic processor , the message into a number of equal sized message blocks comprising a first message block , one or more subsequent message blocks , and a final message block ; performing , by the electronic processor, a first bit-mixing operation on the first message block with an initialization value ; performing , by the electronic processor, subsequent bit-mixing operations on the one or more subsequent message blocks and the final message block with a previous message block; producing , by the electronic processor, the message authentication tag based on the first bit-mixing operation and the subsequent bit-mixing operations; wherein the step of producing the message authentication tag comprises: performing a final bit-mixing operation on an output of the bit-mixing operation on the final message block and a concatenation of a length (A) of authentication data and a length (C) of encrypted text blocks; and performing an exclusive OR operation with an output of the final bit-mixing operation and an encrypted null counter that is encrypted using a block encryption algorithm, under a secret key, to produce the message authentication tag. performing a final bit-mixing operation on an output of the bit-mixing operation on the final message block and a concatenation of a length (A) of authentication data and a length (C) of encrypted text blocks; and performing an exclusive OR operation with an output of the final bit-mixing operation and an encrypted null counter that is encrypted using a block encryption algorithm, under a secret key, to produce the message authentication tag.
A method for depositing a plasma polymer layer in an atmospheric pressure plasma onto a metallic substrate, wherein the plasma is generated by a discharge between electrodes, characterised in that at least one organic coating precursor compound is fed into the area of the relaxing plasma, and is deposited as a plasma polymer layer onto the metallic substrate, wherein nitrogen or a forming gas is used as a process gas and the at least one organic coating precursor compound is selected from the group consisting of heterocyclic compounds, cyclic non-functionalised hydrocarbons and hydrocarbons with at least one functional group selected from an alcohol group, a carbonyl group, an amino group and a multiple carbon-carbon bond, wherein the heterocyclic compound is tetrahydrofuran, tetrahydrothiophene, piperidine, pyrrolidine, 2,3-dihydrofuran, 2,5-dihydrofuran, 2,3-dihydrothiophene, 2,5-dihydrothiophene, 1-pyrroline, 2-pyrroline or 3-pyrroline, and wherein the hydrocarbon with at least one functional group is a non-cyclic hydrocarbon with at least one functional group selected from a C-C double bond, C-C triple bond, and carbonyl group, or a cyclic non-aromatic hydrocarbon with at least one functional group selected from a C-C double bond, CC triple bond, carbonyl group, alcohol group and amino group. characterised in that at least one organic coating precursor compound is fed into the area of the relaxing plasma, and is deposited as a plasma polymer layer onto the metallic substrate, wherein nitrogen or a forming gas is used as a process gas and the at least one organic coating precursor compound is selected from the group consisting of heterocyclic compounds, cyclic non-functionalised hydrocarbons and hydrocarbons with at least one functional group selected from an alcohol group, a carbonyl group, an amino group and a multiple carbon-carbon bond, wherein the heterocyclic compound is tetrahydrofuran, tetrahydrothiophene, piperidine, pyrrolidine, 2,3-dihydrofuran, 2,5-dihydrofuran, 2,3-dihydrothiophene, 2,5-dihydrothiophene, 1-pyrroline, 2-pyrroline or 3-pyrroline, and wherein the hydrocarbon with at least one functional group is a non-cyclic hydrocarbon with at least one functional group selected from a C-C double bond, C-C triple bond, and carbonyl group, or a cyclic non-aromatic hydrocarbon with at least one functional group selected from a C-C double bond, CC triple bond, carbonyl group, alcohol group and amino group.