mhurhangee/ep-ind-claims huggingface dataset:
A method of performing a graphics pipeline, by a graphic processing unit, on a frame including an object partitioned into one or more tiles, the method comprising: performing a binning pipeline including: generating an output patch; determining the number of tiles that include the output patch; determining whether to perform tessellating on the output patch based on the determined number of tiles; and binning a tile list of one of the output patch or tessellated primitives of the output patch based on whether tessellating is performed; and performing a rendering pipeline per tile based on the binned tile list, wherein the performing of the binning pipeline comprises determining no tessellating is performed on the output patch when the number of tiles that include the output patch is one. performing a binning pipeline including: generating an output patch; determining the number of tiles that include the output patch; determining whether to perform tessellating on the output patch based on the determined number of tiles; and binning a tile list of one of the output patch or tessellated primitives of the output patch based on whether tessellating is performed; and generating an output patch; determining the number of tiles that include the output patch; determining whether to perform tessellating on the output patch based on the determined number of tiles; and binning a tile list of one of the output patch or tessellated primitives of the output patch based on whether tessellating is performed; and performing a rendering pipeline per tile based on the binned tile list, wherein the performing of the binning pipeline comprises determining no tessellating is performed on the output patch when the number of tiles that include the output patch is one.
An image recording material comprising: an anodized aluminum support; an intermediate layer containing a polymer having a carboxylic acid group in a side chain thereof and formed on the aluminum support; and a photosensitive layer containing at least 50% by weight or more of novolak type phenol resin and a photothermal conversion agent and recordable by IR laser beam characterised in that the aluminium support has not been subjected to a silicate treatment. an anodized aluminum support; an intermediate layer containing a polymer having a carboxylic acid group in a side chain thereof and formed on the aluminum support; and a photosensitive layer containing at least 50% by weight or more of novolak type phenol resin and a photothermal conversion agent and recordable by IR laser beam characterised in that the aluminium support has not been subjected to a silicate treatment.
Method for adapting the composition of a mixture comprising fuel and combustion air, which mixture is supplied to a combustion chamber of a mixture-lubricated combustion engine in a work apparatus which is controlled by a user, - wherein at least a partial quantity of fuel is supplied to the combustion engine via an electromagnetically controlled fuel valve, - and, in an operating state of the combustion engine, the supplied partial quantity of fuel is added in a metered manner by the electromagnetic fuel valve depending on operating parameters, wherein the composition of the mixture is adapted in a special operating state which differs from the operating state of the combustion engine, - wherein, for the purpose of initiating the special operating state, the combustion engine is initially started by the user, - wherein the combustion engine, after starting, is operated in a first rotational speed range for a prespecified operating time (T min), - wherein, after the prespecified operating time (T min) has elapsed, the special operating state for adapting the composition of the mixture is initiated by a user action, - wherein the composition of the mixture is adapted in a plurality of successive calibration steps (40, 50, 60), characterized in that a first calibration step serves to adjust the maximum power of the work apparatus, in that the user action causes an increase in the rotational speed of the combustion engine into a second rotational speed range (C, D), in that the second rotational speed range (C, D) lies above the first rotational speed range, in that the combustion engine is operated by the user under full throttle in the second rotational speed range (C, D), in that the combustion engine is operated in the second rotational speed range (C, D) in a load-free manner, in that, in a following second calibration step, the mixture is adapted at the maximum rotational speed (n max) of the combustion engine, and in that the rotational speed (n ist) of the combustion engine is increased to the maximum rotational speed (n max) after successful completion of the first calibration step. - wherein at least a partial quantity of fuel is supplied to the combustion engine via an electromagnetically controlled fuel valve, - and, in an operating state of the combustion engine, the supplied partial quantity of fuel is added in a metered manner by the electromagnetic fuel valve depending on operating parameters, wherein the composition of the mixture is adapted in a special operating state which differs from the operating state of the combustion engine, - wherein, for the purpose of initiating the special operating state, the combustion engine is initially started by the user, - wherein the combustion engine, after starting, is operated in a first rotational speed range for a prespecified operating time (T min), - wherein, after the prespecified operating time (T min) has elapsed, the special operating state for adapting the composition of the mixture is initiated by a user action, - wherein the composition of the mixture is adapted in a plurality of successive calibration steps (40, 50, 60),
A method, comprising: receiving, at a processor, navigation information and a user profile associated with a user, determining, by the processor, first follow-up questions for presentation to a user, based at least on navigation information and the user profile of the user, the first follow-up questions comprising one or more initial questions and one or more supplemental questions that depend on the one or more initial questions and being generated dynamically by querying the user profile of the user and comparing the user profile against at least the navigation information; communicating, by the processor, the first follow-up questions to the user; receiving, at the processor, one or more user responses to the first follow-up questions; and determining, by the processor, a point of interest based at least on the one or more user responses to the first follow-up questions. receiving, at a processor, navigation information and a user profile associated with a user, determining, by the processor, first follow-up questions for presentation to a user, based at least on navigation information and the user profile of the user, the first follow-up questions comprising one or more initial questions and one or more supplemental questions that depend on the one or more initial questions and being generated dynamically by querying the user profile of the user and comparing the user profile against at least the navigation information; communicating, by the processor, the first follow-up questions to the user; receiving, at the processor, one or more user responses to the first follow-up questions; and determining, by the processor, a point of interest based at least on the one or more user responses to the first follow-up questions.
An aqueous polymer dispersion for composite film lamination, prepared by radical emulsion polymerization, - where initially in a first stage in aqueous medium a first polymer dispersed in water is prepared by radical emulsion polymerization, the first polymer being prepared from a first composition comprising ethylenically unsaturated, radically polymerizable monomers, and where - in a further stage a polymer dispersion is prepared in aqueous medium and in the presence of the first polymer by radical emulsion polymerization of a further composition, which is different from the first composition and comprises ethylenically unsaturated, radically polymerizable monomers, - where the monomers of the first stage comprise at least one monomer having at least one acid group, in an amount of at least 0.1 part by weight, based on 100 parts by weight of the monomers of all stages, and - where the monomers of the further stage comprise at least one monomer having at least one oxazoline group, and - where the polymerization of the first stage takes place at a pH less than 5 and, before the polymerization of the further stage, acid groups are neutralized with volatile base, preferably aqueous ammonia solution, to an extent such that the pH of the polymer dispersion before the further stage is greater than 5, and - where in total less than 0.5 part by weight, based on 100 parts by weight of monomers, of emulsifier, or no emulsifier, is used, and - where the glass transition temperature of the polymer prepared is less than -10°C. - where initially in a first stage in aqueous medium a first polymer dispersed in water is prepared by radical emulsion polymerization, the first polymer being prepared from a first composition comprising ethylenically unsaturated, radically polymerizable monomers, and where - in a further stage a polymer dispersion is prepared in aqueous medium and in the presence of the first polymer by radical emulsion polymerization of a further composition, which is different from the first composition and comprises ethylenically unsaturated, radically polymerizable monomers, - where the monomers of the first stage comprise at least one monomer having at least one acid group, in an amount of at least 0.1 part by weight, based on 100 parts by weight of the monomers of all stages, and - where the monomers of the further stage comprise at least one monomer having at least one oxazoline group, and - where the polymerization of the first stage takes place at a pH less than 5 and, before the polymerization of the further stage, acid groups are neutralized with volatile base, preferably aqueous ammonia solution, to an extent such that the pH of the polymer dispersion before the further stage is greater than 5, and - where in total less than 0.5 part by weight, based on 100 parts by weight of monomers, of emulsifier, or no emulsifier, is used, and - where the glass transition temperature of the polymer prepared is less than -10°C.
An entertainment system including an interactive component for an amusement park, wherein the interactive component comprises: a detection device (22, 24) disposed within a housing and configured to read an identification tag via long range and short range radio communications; an interactive sensor (26, 28) disposed within the housing and configured to detect an interaction comprising proximity to or a physical interaction with a portion of the interactive component; a control device communicatively coupled to the detection device (22, 24) and the interactive sensor (26, 28), wherein the control device is configured to receive feedback from the detection device (22, 24) and the interactive sensor (26, 28); and an effect device (30, 32) configured to receive a signal from the control device and to generate an effect based on detection of the interaction with the portion of the interactive component; characterised in that the interactive component is configured to be mounted to a structural support of the amusement park using a mounting component and the structural support comprises a height adjustment feature configured to move the interactive component based on user characteristics stored in a guest profile and associated with the identification tag; or wherein the effect generated by the effect device (30, 32) is personalized to the guest profile based on preferences identified in the guest profile. a detection device (22, 24) disposed within a housing and configured to read an identification tag via long range and short range radio communications; an interactive sensor (26, 28) disposed within the housing and configured to detect an interaction comprising proximity to or a physical interaction with a portion of the interactive component; a control device communicatively coupled to the detection device (22, 24) and the interactive sensor (26, 28), wherein the control device is configured to receive feedback from the detection device (22, 24) and the interactive sensor (26, 28); and an effect device (30, 32) configured to receive a signal from the control device and to generate an effect based on detection of the interaction with the portion of the interactive component; characterised in that the interactive component is configured to be mounted to a structural support of the amusement park using a mounting component and the structural support comprises a height adjustment feature configured to move the interactive component based on user characteristics stored in a guest profile and associated with the identification tag; or wherein the effect generated by the effect device (30, 32) is personalized to the guest profile based on preferences identified in the guest profile.
A polypropylene blend comprising: (a) Component being a copolymer of propylene and a C 4 -C 12 α-olefin, and having 2,1 regio-defects of more than 0.40 % determined by 13 C-NMR spectroscopy, wherein component has an MFR 2 at 230°C according to ISO 1133 of 0.25 to 10 g/10min, and (b) Component being a propylene homo- or copolymer having 2,1 regio-defects of 0.40 % or less determined by 13 C-NMR spectroscopy, wherein the polypropylene blend is not β-nucleated. (a) Component being a copolymer of propylene and a C 4 -C 12 α-olefin, and having 2,1 regio-defects of more than 0.40 % determined by 13 C-NMR spectroscopy, wherein component has an MFR 2 at 230°C according to ISO 1133 of 0.25 to 10 g/10min, and (b) Component being a propylene homo- or copolymer having 2,1 regio-defects of 0.40 % or less determined by 13 C-NMR spectroscopy,
A method comprising: a. providing molecules of a target polynucleotide; b. fragmenting a first molecule of said molecules of said target polynucleotide to generate a plurality of non-overlapping first polynucleotide fragments; c. partitioning said first polynucleotide fragments to generate partitioned first polynucleotide fragments, wherein at least one partition of said partitioned first polynucleotide fragments comprises a first polynucleotide fragment with a unique sequence within said at least one partition; d. fragmenting said partitioned first polynucleotide fragments to generate a plurality of non-overlapping second polynucleotide fragments; e. fragmenting a second molecule of said molecules of said target polynucleotide to generate a plurality of non-overlapping third polynucleotide fragments; f. partitioning said third polynucleotide fragments to generate partitioned third polynucleotide fragments, wherein at least one partition of said partitioned third polynucleotide fragments comprises a third polynucleotide fragment with a unique sequence within said at least one partition; and g. fragmenting said partitioned third polynucleotide fragments to generate a plurality of non-overlapping fourth polynucleotide fragments; wherein i. said third polynucleotide fragments overlap with said first polynucleotide fragments; or ii. said fourth polynucleotide fragments overlap with said second polynucleotide fragments. a. providing molecules of a target polynucleotide; b. fragmenting a first molecule of said molecules of said target polynucleotide to generate a plurality of non-overlapping first polynucleotide fragments; c. partitioning said first polynucleotide fragments to generate partitioned first polynucleotide fragments, wherein at least one partition of said partitioned first polynucleotide fragments comprises a first polynucleotide fragment with a unique sequence within said at least one partition; d. fragmenting said partitioned first polynucleotide fragments to generate a plurality of non-overlapping second polynucleotide fragments; e. fragmenting a second molecule of said molecules of said target polynucleotide to generate a plurality of non-overlapping third polynucleotide fragments; f. partitioning said third polynucleotide fragments to generate partitioned third polynucleotide fragments, wherein at least one partition of said partitioned third polynucleotide fragments comprises a third polynucleotide fragment with a unique sequence within said at least one partition; and g. fragmenting said partitioned third polynucleotide fragments to generate a plurality of non-overlapping fourth polynucleotide fragments; i. said third polynucleotide fragments overlap with said first polynucleotide fragments; or ii. said fourth polynucleotide fragments overlap with said second polynucleotide fragments.
An optical anti-counterfeiting element, comprising: a relief structure layer; the relief structure layer comprises a first region having a first microstructure and a second region having a second microstructure, a specific volume of the second microstructure is greater than a specific volume of the first microstructure; a first coating, a dielectric layer, a second coating and a protective layer stacked in sequence are arranged on a side of the relief structure layer; the first coating and the dielectric layer are located in the first region and the second region, and the second coating and the protective layer are located in the first region but not located in the second region; and wherein, the first coating, the dielectric layer and the second coating form a functional coating group, the functional coating group and the first microstructure have a combined optical characteristic in the first region, and the first coating and the second microstructure have a combined optical characteristic in the second region. a relief structure layer; the relief structure layer comprises a first region having a first microstructure and a second region having a second microstructure, a specific volume of the second microstructure is greater than a specific volume of the first microstructure; a first coating, a dielectric layer, a second coating and a protective layer stacked in sequence are arranged on a side of the relief structure layer; the first coating and the dielectric layer are located in the first region and the second region, and the second coating and the protective layer are located in the first region but not located in the second region; and wherein, the first coating, the dielectric layer and the second coating form a functional coating group, the functional coating group and the first microstructure have a combined optical characteristic in the first region, and the first coating and the second microstructure have a combined optical characteristic in the second region.
An immunogenic composition for use in a method of treatment and/or prevention of AMHR2-expressing ovarian cancer tumor through the induction of an immune response against Anti-Mullerian Hormone Receptor, Type II (AMHR2) in a subject, wherein: (a) the immunogenic composition comprises an AMHR2 polypeptide that comprises the cytoplasmic domain of an AMHR2 polypeptide of SEQ ID NO: 1; (b) the immunogenic composition elicits an immune response specific for the cytoplasmic domain of the AMHR2 polypeptide set forth in SEQ ID NO: 1; and (c) the immune response comprises a T-cell immune response against AMHR2-expressing ovarian cancer cells in the subject. (a) the immunogenic composition comprises an AMHR2 polypeptide that comprises the cytoplasmic domain of an AMHR2 polypeptide of SEQ ID NO: 1; (b) the immunogenic composition elicits an immune response specific for the cytoplasmic domain of the AMHR2 polypeptide set forth in SEQ ID NO: 1; and (c) the immune response comprises a T-cell immune response against AMHR2-expressing ovarian cancer cells in the subject.
A security document comprising a substrate which after it has been put into contact with a staining ink does not recover its original aspect after a chemical treatment, and covered on at least one side by from about 70% to about 90% of a protective varnish and comprising from about 10% to about 30% of one or more varnish-free areas comprising one or more varnish-free indentations on selected area(s) of the security document, wherein in a varnish-free area the protective varnish is present in an amount of less than 30% in comparison with surfaces covered with the protective varnish, the percent corresponding to a layer thickness (t) percent compared with the average thickness of the protective varnish layer, and wherein an indentation is a recess in a surface of the security document, the percents being based on the total surface of the one side of the security document.
A control method of uplink access transmission power of a mobile station performing a random access channel transmission to its serving radio communication device in each of a plurality of radio communication devices each of which controls a cell (A, B, C) in a radio communications system, characterised by the steps of: a) detecting an average uplink access delay (AvRachDelay) in synchronization establishment through the random access channel in a cell of the radio communication device; b) comparing the uplink access delay with a target delay (TargetRachDelay); and c) controlling a value (PDEL) related to uplink access transmission power (In-itRachPO) based on a comparison result of step b), wherein step c) comprises: c.1) when the amount of access delay is smaller than the target delay, decreasing the value related to uplink access transmission power; and c.2) when the amount of access delay is greater than the target delay, increasing the value related to uplink access transmission power within a predetermined upper limit (MaxInitRachPO); and wherein the value related to the uplink access transmission power is one of uplink access transmission power, initial uplink access transmission power offset and increment/decrement step size. a) detecting an average uplink access delay (AvRachDelay) in synchronization establishment through the random access channel in a cell of the radio communication device; b) comparing the uplink access delay with a target delay (TargetRachDelay); and c) controlling a value (PDEL) related to uplink access transmission power (In-itRachPO) based on a comparison result of step b), wherein step c) comprises: c.1) when the amount of access delay is smaller than the target delay, decreasing the value related to uplink access transmission power; and c.2) when the amount of access delay is greater than the target delay, increasing the value related to uplink access transmission power within a predetermined upper limit (MaxInitRachPO); and wherein the value related to the uplink access transmission power is one of uplink access transmission power, initial uplink access transmission power offset and increment/decrement step size. c.1) when the amount of access delay is smaller than the target delay, decreasing the value related to uplink access transmission power; and c.2) when the amount of access delay is greater than the target delay, increasing the value related to uplink access transmission power within a predetermined upper limit (MaxInitRachPO); and