mhurhangee/patent-ind-claim-en huggingface dataset:
Outdoor cooking device, comprising: - removable receiving means , arranged to support food to be cooked, - removable heating means , arranged to supply heat for cooking, - an outer container formed by a wall, taking the receiving means and the heating means , and of which one inner surface of the wall is arranged to be exposed to cooking juices, - support means, arranged to rest on a bearing plane on the ground, characterised in that the device comprises a plurality of supports mounted removably on the outer container , each support comprises a support area for the receiving means and a support area for the heating means . - removable receiving means , arranged to support food to be cooked, - removable heating means , arranged to supply heat for cooking, - an outer container formed by a wall, taking the receiving means and the heating means , and of which one inner surface of the wall is arranged to be exposed to cooking juices, - support means, arranged to rest on a bearing plane on the ground,
Medical instrument with a hollow shaft , an actuating unit arranged at the proximal end of the shaft , and an instrument tip with an instrument arranged at the distal end of the shaft , wherein the instrument is actuatable via an actuating element , which is mounted axially displaceably in the shaft and is operatively connected at the proximal end to the actuating unit , and the instrument tip is pivotable relative to the longitudinal axis of the shaft via a joint mechanism , wherein the joint mechanism is composed of pivoting members which are arranged at the distal end of the shaft and which, via steering wires running in the longitudinal direction of the shaft , are connected to a proximal-side drive in such a way that a movement of the proximal-side drive causes a corresponding relative movement of the distal-side pivoting members and thus a pivoting of the instrument tip , and wherein the proximal-side drive has a spatially adjustable disc on which the steering wires are mounted, characterized in that the drive for the spatially adjustable disc is designed as a motorized drive , wherein the motorized drive is composed of two drive units which are arranged offset from each other by 180° and of which the drive shafts lie on a common central axis , and wherein the spatially adjustable disc is arranged between the two drive units .
A method for producing a tetravinylsilane-containing organosilicon precursor composition, the method comprising the steps of: distilling at least once a composition comprising tetravinylsilane, wherein a distilled tetravinylsilane composition is produced after distilling, wherein the distilled tetravinylsilane composition includes less than 100 ppm (0.01 wt. %) of >1000 amu impurities as determined by Gel Permeation Chromatography (GPC) and wherein the distilled tetravinylsilane composition includes less than 50 ppm water impurity and less than 10 ppm halide impurity; and packaging the distilled tetravinylsilane composition in a container, wherein the container is made of stainless steel, and wherein the container permits transmission into the container of no more than 10% of ultraviolet and visible light having a wavelength of between 290 nm to 450 nm. distilling at least once a composition comprising tetravinylsilane, wherein a distilled tetravinylsilane composition is produced after distilling, wherein the distilled tetravinylsilane composition includes less than 100 ppm (0.01 wt. %) of >1000 amu impurities as determined by Gel Permeation Chromatography (GPC) and wherein the distilled tetravinylsilane composition includes less than 50 ppm water impurity and less than 10 ppm halide impurity; and packaging the distilled tetravinylsilane composition in a container, wherein the container is made of stainless steel, and wherein the container permits transmission into the container of no more than 10% of ultraviolet and visible light having a wavelength of between 290 nm to 450 nm.
A method performed by a computing device for determining whether to perform a translation lookaside buffer, TLB, invalidation procedure, the method comprising: receiving a request to perform the TLB invalidation procedure, wherein the request specifies an application space identifier for a plurality of virtual addresses; maintaining a plurality of Bloom filters, wherein each Bloom filter of the plurality of Bloom filters corresponds to a respective hash function of a plurality of hash functions; providing the application space identifier as input to each of the plurality of hash functions to obtain a plurality of hash values; determining that one of the hash values is not represented in one of the Bloom filters; and in response, bypassing performing the TLB invalidation procedure. receiving a request to perform the TLB invalidation procedure, wherein the request specifies an application space identifier for a plurality of virtual addresses; maintaining a plurality of Bloom filters, wherein each Bloom filter of the plurality of Bloom filters corresponds to a respective hash function of a plurality of hash functions; providing the application space identifier as input to each of the plurality of hash functions to obtain a plurality of hash values; determining that one of the hash values is not represented in one of the Bloom filters; and in response, bypassing performing the TLB invalidation procedure.
A method of making a laminated polyester film comprising a polyester film, the method comprising the steps of forming a coating layer on at least one surface of the polyester film, wherein the coating layer is produced by applying a coating solution comprising an active methylene-blocked polyisocyanate compound and a urethane resin thereonto, wherein the urethane resin is synthesized by the reaction between a polycarbonate polyol and an isocyanate, and wherein the coating layer is provided on a surface thereof with a functional layer that is formed by applying a solvent-free active energy ray-curable coating material thereonto.
A process for producing cellulose carbamate (CCA), comprising the steps of: a) providing a mixture including cellulose, liquid and urea, and b) subjecting the mixture to drying and heating to carry out the carbamation reaction between cellulose and urea to produce cellulose carbamate and released ammonia in a fluidized bed, wherein the mixture is introduced into a fluidized bed drying chamber; a stream of hot gaseous medium is introduced into the chamber to effect fluidization of the mixture in order to dry and heat the mixture, whereafter a stream of gaseous medium containing ammonia and the produced cellulose carbamate are removed from the fluidized bed drying chamber. a) providing a mixture including cellulose, liquid and urea, and b) subjecting the mixture to drying and heating to carry out the carbamation reaction between cellulose and urea to produce cellulose carbamate and released ammonia in a fluidized bed, wherein the mixture is introduced into a fluidized bed drying chamber; a stream of hot gaseous medium is introduced into the chamber to effect fluidization of the mixture in order to dry and heat the mixture, whereafter a stream of gaseous medium containing ammonia and the produced cellulose carbamate are removed from the fluidized bed drying chamber.
A method comprising: at a networking device including a processor, a memory, and a plurality of output ports: obtaining , at the networking device, a first outgoing label associated with one or more output port identifiers of the networking device, wherein the first outgoing label identifies a first destination node, and wherein the one or more output port identifiers identify one or more output ports of the plurality of output ports that couple the networking device to a first next hop node which provides a first path to the first destination node associated with the first outgoing label; determining , by performing a comparison in a label table comprising a plurality of outgoing labels, that the one or more output port identifiers are also associated with a second outgoing label, wherein the second outgoing label identifies a second destination node different from the first destination node; and merging , into a next hop table allocated in the memory, the first outgoing label with the second outgoing label in response to determining that the one or more output port identifiers are also associated with the second outgoing label, wherein merging reduces utilization of the memory by the next hop table by reducing duplication of the one or more output port identifiers. obtaining , at the networking device, a first outgoing label associated with one or more output port identifiers of the networking device, wherein the first outgoing label identifies a first destination node, and wherein the one or more output port identifiers identify one or more output ports of the plurality of output ports that couple the networking device to a first next hop node which provides a first path to the first destination node associated with the first outgoing label; determining , by performing a comparison in a label table comprising a plurality of outgoing labels, that the one or more output port identifiers are also associated with a second outgoing label, wherein the second outgoing label identifies a second destination node different from the first destination node; and merging , into a next hop table allocated in the memory, the first outgoing label with the second outgoing label in response to determining that the one or more output port identifiers are also associated with the second outgoing label, wherein merging reduces utilization of the memory by the next hop table by reducing duplication of the one or more output port identifiers.
A method for processing a lithographic printing plate material comprising the steps of: (i) treating the plate material with an alkaline development solution, (ii) treating the plate material with a first gum solution and consecutively with a second gum solution, wherein the first and second gum solutions are configured as a cascade whereby the second gum solution overflows into the first gum solution. (i) treating the plate material with an alkaline development solution, (ii) treating the plate material with a first gum solution and consecutively with a second gum solution,
A control device for an in-cylinder direct injection internal combustion engine comprising: a fuel injection valve that directly injects fuel into a cylinder; a high pressure fuel pump that pressurizes fuel to be supplied to the fuel injection valve ; and a variable valve mechanism that can change a valve timing or a lift amount of an intake valve or an exhaust valve , wherein the control device is configured to predict occurrence of generation of synthetic noise generated when drive noise of the fuel injection valve and drive noise of the high pressure fuel pump overlap in timing, and when determining that there is synthetic noise, change an operating angle of the variable valve mechanism while satisfying a fuel injection request of the fuel injection valve , and when it is determined that there is synthetic noise, to change an operating angle of the variable valve mechanism coupled to a drive cam of the high pressure fuel pump on the basis of a drive timing of the fuel injection valve .
An apparatus of a high-efficiency, HE, access point, AP, the apparatus comprising: memory; and, processing circuitry coupled to the memory, wherein the processing circuitry configured to: encode a multi-user, MU, block acknowledgement request, BAR,MU-BAR, , the MU-BAR to indicate to a plurality of HE stations, STAs, to simultaneously transmit block acknowledgements, BAs, to the HE AP , the MU-BAR to indicate which subchannel each HE STA of the plurality of HE STAs should use to transmit a BA to the HE AP ; configure the HE AP to transmit the MU-BAR ; and receive the BAs from the plurality of HE STAs . encode a multi-user, MU, block acknowledgement request, BAR,MU-BAR, , the MU-BAR to indicate to a plurality of HE stations, STAs, to simultaneously transmit block acknowledgements, BAs, to the HE AP , the MU-BAR to indicate which subchannel each HE STA of the plurality of HE STAs should use to transmit a BA to the HE AP ; configure the HE AP to transmit the MU-BAR ; and receive the BAs from the plurality of HE STAs .
A diffuser comprising a plurality of diffusing vanes , diffusing channels being formed between the diffusing vanes , characterized in that in a flow region defined between a terminating end of one diffusing vane and a starting end of another adjacent diffusing vane , an intersection line (L1) between a bottom of the diffusing channel between the two diffusing vanes and a circumferential section of the bottom of the diffusing channel comprises a front arcuate line segment (AB) and a subsequent straight line segment (BD), the arcuate line segment (AB) extends curvedly, outwardly and downwardly from or from adjacent an inlet end of the diffusing channel , the straight line segment (BD) connects to the arcuate line segment (AB) and extends to an outlet end of the diffusing channel .
A method for processing an image comprising the steps of: receiving a source image having at least one sensitive portions arranged to present intelligible sensitive information; and processing, with a predetermined redacting method, the at least one sensitive portions of the source image to generate an output image including the intelligible sensitive information being transformed into an unintelligible form; wherein the step of processing includes scrambling the at least one sensitive portions such that the intelligible sensitive information becomes unintelligible; and wherein the sensitive information in the unintelligible form is adapted to be restored to the intelligible form; and recording a scrambling arrangement of a plurality of image pixels associated with each of the at least one sensitive portions, wherein each of the at least one sensitive portions includes an array of partitions each including at least one image pixel; characterized in that the scrambling arrangement is encrypted and embedded as metadata of the output image or embedded within the header of the output image, the scrambling arrangement is an arrangement of the plurality of pixels or partitions of the target area of an image which is different from the original one, the method comprising the further steps of restoring the sensitive information in the unintelligible form to the intelligible form by decrypting the scrambling arrangement, and reverse-scrambling the at least one sensitive portion according to the scrambling arrangement. receiving a source image having at least one sensitive portions arranged to present intelligible sensitive information; and processing, with a predetermined redacting method, the at least one sensitive portions of the source image to generate an output image including the intelligible sensitive information being transformed into an unintelligible form; wherein the step of processing includes scrambling the at least one sensitive portions such that the intelligible sensitive information becomes unintelligible; and wherein the sensitive information in the unintelligible form is adapted to be restored to the intelligible form; and recording a scrambling arrangement of a plurality of image pixels associated with each of the at least one sensitive portions, wherein each of the at least one sensitive portions includes an array of partitions each including at least one image pixel; characterized in that the scrambling arrangement is encrypted and embedded as metadata of the output image or embedded within the header of the output image, the scrambling arrangement is an arrangement of the plurality of pixels or partitions of the target area of an image which is different from the original one, the method comprising the further steps of restoring the sensitive information in the unintelligible form to the intelligible form by decrypting the scrambling arrangement, and reverse-scrambling the at least one sensitive portion according to the scrambling arrangement.
A delivery roll for thermal interface components, the roll comprising a carrier tape , an adhesive layer , and a plurality of thermal interface components , wherein the adhesive layer is arranged on a surface of the carrier tape ; each thermal interface component comprises a top liner , a bottom liner and a thermal interface pad arranged therebetween; the carrier tape supports the plurality of thermal interface components by the adhesive layer adhering to the bottom liner of each thermal interface component ; and the plurality of thermal interface components is arranged in a spaced apart manner along the carrier tape .
A process for preparing a solidified or crystalline maltitol comprising the successive steps of a) Carrying out liquefaction of a starch milk, b) Carrying out saccharification of the liquefied starch milk in the presence of alpha-amylase, and beta-amylase and a debranching enzyme selected from the group of pullulanase, iso-amylase and mixtures thereof, c) Further adding maltogenic alpha-amylase and/or iso-amylase, and further adding additional alpha-amylase at about 70 to 85% spent time of total saccharification time, for obtaining a maltose containing syrup comprising at least 85% maltose based on dry matter and less than 1.5% glucose based on dry matter, optionally followed by demineralisation of maltose containing syrup, d) Molecular sieving of the maltose containing syrup to obtain a fraction (A) comprising at least 95% maltose based on dry substance of fraction (A), e) Hydrogenating catalytically fraction (A) for obtaining a liquid maltitol enriched product (B), f) Increasing dry substance of liquid maltitol enriched product (B), g) Solidifying or crystallizing the liquid enriched product for preparing a solidified or crystalline maltitol, wherein in step b) the saccharification is taking place in presence of from 1% to 4% of residual activity of total amount of alpha-amylase applied in the liquefaction. a) Carrying out liquefaction of a starch milk, b) Carrying out saccharification of the liquefied starch milk in the presence of alpha-amylase, and beta-amylase and a debranching enzyme selected from the group of pullulanase, iso-amylase and mixtures thereof, c) Further adding maltogenic alpha-amylase and/or iso-amylase, and further adding additional alpha-amylase at about 70 to 85% spent time of total saccharification time, for obtaining a maltose containing syrup comprising at least 85% maltose based on dry matter and less than 1.5% glucose based on dry matter, optionally followed by demineralisation of maltose containing syrup, d) Molecular sieving of the maltose containing syrup to obtain a fraction (A) comprising at least 95% maltose based on dry substance of fraction (A), e) Hydrogenating catalytically fraction (A) for obtaining a liquid maltitol enriched product (B), f) Increasing dry substance of liquid maltitol enriched product (B), g) Solidifying or crystallizing the liquid enriched product for preparing a solidified or crystalline maltitol,
Method for monitoring an anti-leak valve of a circuit for supplying oil between an oil reservoir and elements to be lubricated of a jet engine, characterised in that it comprises steps of: - Controlling the measurement (E1, E3) of oil level values (EOL stop , EOL idle ) in the reservoir, respectively at the start and at the end of the jet engine start-up, - Calculating (E4) the difference (EOL Measurement ) between the oil level values in the reservoir at the start and at the end of the jet engine start-up, to form a measured change in the oil level in the reservoir, - Controlling the measurement (E2) of an oil temperature value (EOT start ), - Determining (E5) an estimated change (EOL Model ) of the oil level in the reservoir, depending on the oil temperature value, - Calculating (E6) the difference (ΔEOL) between the measured change in the oil level in the reservoir and the estimated change in the oil level in the reservoir for the measured temperature value, - Comparing (E7) the calculated difference with a detection threshold, - Activating (E9) an alarm if the calculated difference is lower than the detection threshold. - Controlling the measurement (E1, E3) of oil level values (EOL stop , EOL idle ) in the reservoir, respectively at the start and at the end of the jet engine start-up, - Calculating (E4) the difference (EOL Measurement ) between the oil level values in the reservoir at the start and at the end of the jet engine start-up, to form a measured change in the oil level in the reservoir, - Controlling the measurement (E2) of an oil temperature value (EOT start ), - Determining (E5) an estimated change (EOL Model ) of the oil level in the reservoir, depending on the oil temperature value, - Calculating (E6) the difference (ΔEOL) between the measured change in the oil level in the reservoir and the estimated change in the oil level in the reservoir for the measured temperature value, - Comparing (E7) the calculated difference with a detection threshold, - Activating (E9) an alarm if the calculated difference is lower than the detection threshold.
Sole (100; 200) for a shoe, in particular a sports shoe, comprising: a. a cushioning element (110; 210); and b. a protection element , wherein c. the sole (100; 200) comprises a first partial region and a second partial region , wherein d. the cushioning element (110; 210) comprises a greater stiffness in the first partial region than in the second partial region , wherein e. the cushioning element (110; 210) comprises randomly arranged particles of expanded thermoplastic polyurethane or expanded polyether-block-amide, wherein f. the protection element comprises a plurality of openings and / or regions of thinner material in the second partial region , and wherein g. when treading down with the sole (100; 200) on a ground, the protection element comprises a larger contact area with the ground in the first partial region than in the second partial region . a. a cushioning element (110; 210); and b. a protection element , wherein c. the sole (100; 200) comprises a first partial region and a second partial region , wherein d. the cushioning element (110; 210) comprises a greater stiffness in the first partial region than in the second partial region , wherein e. the cushioning element (110; 210) comprises randomly arranged particles of expanded thermoplastic polyurethane or expanded polyether-block-amide, wherein f. the protection element comprises a plurality of openings and / or regions of thinner material in the second partial region , and wherein g. when treading down with the sole (100; 200) on a ground, the protection element comprises a larger contact area with the ground in the first partial region than in the second partial region .
A process for manufacturing a light emitting device (LED) or a microlight emitting device (micro-LED) comprising the following steps: (a-1) applying a layer of a formulation comprising (i) a polymer containing a silazane repeating unit M 1 , and (ii) at least one wavelength converting material to a LED precursor or a micro-LED precursor, wherein the LED or micro-LED precursor contains a primary light source; (a-2) precuring the layer on the LED or micro-LED precursor by exposure to radiation selected from UV light, visible light, or IR light; (b) curing the precured layers on the LED or micro-LED precursor by exposure to heat or radiation; wherein steps (a-1) and (a-2) are successively carried out two or more times before step (b) is carried out so that a LED or micro-LED precursor comprising two or more precured layers is obtained which is then subjected to the curing in step (b). (a-1) applying a layer of a formulation comprising (i) a polymer containing a silazane repeating unit M 1 , and (ii) at least one wavelength converting material to a LED precursor or a micro-LED precursor, wherein the LED or micro-LED precursor contains a primary light source; (a-2) precuring the layer on the LED or micro-LED precursor by exposure to radiation selected from UV light, visible light, or IR light; (b) curing the precured layers on the LED or micro-LED precursor by exposure to heat or radiation;