mhurhangee/patent-ind-claim-en huggingface dataset:
Method for file transmission from a spacecraft like e.g. a CubeSat, to ground via a Free Space Optical channel, compliant to the Consultative Committee for Space Data Systems - CCSDS-standard, wherein the CCSDS standard define a Transfer Frame as a fixed length protocol data unit which in turn comprises a Secondary Header and a Data Field, the method comprising - assigning a File ID to a file which is to be transmitted, - dividing the transmission of the file into a start fraction to be transmitted by a Start Transfer Frame which in its Data Field includes the start fraction of the file, and into multiple Intermediate fractions to be transmitted by multiple Intermediate Transfer Frames with each Intermediate Transfer Frame including in its Data Field a respective intermediate fraction of the data field, and into an end fraction to be transmitted by an End Transfer Frame which in its Data Field includes the end fraction of the data file, - wherein the Secondary Header of the Start Transfer Frame comprises information for specifying the Transfer Frame as the Start Transfer Frame, - wherein the Secondary Header of each of the Intermediate Transfer Frames comprises information for specifying the Transfer Frame as an Intermediate Transfer Frame, - wherein the Secondary Header of the End Transfer Frame comprises information for specifying the Transfer Frame as the End Transfer Frame, - wherein the Secondary Header of the Start Transfer Frame comprises information about the File ID, File length and Name of the file which is to be transmitted, and - wherein the Secondary Header of each of these Transfer Frames comprises information about the File ID. - assigning a File ID to a file which is to be transmitted, - dividing the transmission of the file into a start fraction to be transmitted by a Start Transfer Frame which in its Data Field includes the start fraction of the file, and into multiple Intermediate fractions to be transmitted by multiple Intermediate Transfer Frames with each Intermediate Transfer Frame including in its Data Field a respective intermediate fraction of the data field, and into an end fraction to be transmitted by an End Transfer Frame which in its Data Field includes the end fraction of the data file, - wherein the Secondary Header of the Start Transfer Frame comprises information for specifying the Transfer Frame as the Start Transfer Frame, - wherein the Secondary Header of each of the Intermediate Transfer Frames comprises information for specifying the Transfer Frame as an Intermediate Transfer Frame, - wherein the Secondary Header of the End Transfer Frame comprises information for specifying the Transfer Frame as the End Transfer Frame, - wherein the Secondary Header of the Start Transfer Frame comprises information about the File ID, File length and Name of the file which is to be transmitted, and - wherein the Secondary Header of each of these Transfer Frames comprises information about the File ID.
A therapy delivery device for a sinus cavity, comprising: a multi-lumen catheter comprising at least a first lumen and a second lumen ; an endoscope comprising a first proximal handle, an endoscope shaft , an endoscope ocular allowing the user to view the sinus cavity, a light post allowing for connection to a light source, a working channel port allowing for introduction of an additional surgical tool and a suction port for providing suction capability; wherein the first proximal handle comprises the working channel port and the suction port ; wherein a distal end of the endoscope shaft is insertable through the second lumen of the multi-lumen catheter; wherein the first lumen of the multi-lumen catheter is expandable upon injection of a therapy ; wherein the distal end portion (45; 48) of the first lumen comprises a compliant polymer having a compliance in the range of 20-100%, and the remaining length portion of the first lumen comprises a non-compliant polymer having a compliance in the range of 0-10%, such that only the distal end expands upon injection of the therapy , characterised in that the first lumen surrounds the second lumen ; and the therapy device further comprises a second proximal handle and a fiber optic cable ; wherein the second proximal handle comprises the endoscope ocular and the light post and the fiber optic cable connects the endoscope ocular and the light post with the distal end of the endoscope shaft via the first handle. a multi-lumen catheter comprising at least a first lumen and a second lumen ; an endoscope comprising a first proximal handle, an endoscope shaft , an endoscope ocular allowing the user to view the sinus cavity, a light post allowing for connection to a light source, a working channel port allowing for introduction of an additional surgical tool and a suction port for providing suction capability;
A method of determining a pathlength deviation of a cuvette , the method comprising: exposing a sample contained in the cuvette to electromagnetic radiation at a plurality of wavenumbers , determining the absorption of the electromagnetic radiation in the sample at the plurality of wavenumbers , characterised in that the method also comprises: determining a first wavenumber (k L ) at which the determined absorption reaches a predetermined absorption level (C D ) for an absorption band of the sample and a second wavenumber (k R ) at which the determined absorption reaches the predetermined absorption level (C D ) for the absorption band, wherein the second wavenumber (k R ) is different from the first wavenumber (k L ) , determining a difference (D) between the first wavenumber (k L ) and the second wavenumber (k R ) , and determining the pathlength deviation (d) based on the determined difference (D) and a nominal value (D nom ) representing a reference value of a width of the absorption band. exposing a sample contained in the cuvette to electromagnetic radiation at a plurality of wavenumbers , determining the absorption of the electromagnetic radiation in the sample at the plurality of wavenumbers , characterised in that the method also comprises: determining a first wavenumber (k L ) at which the determined absorption reaches a predetermined absorption level (C D ) for an absorption band of the sample and a second wavenumber (k R ) at which the determined absorption reaches the predetermined absorption level (C D ) for the absorption band, wherein the second wavenumber (k R ) is different from the first wavenumber (k L ) , determining a difference (D) between the first wavenumber (k L ) and the second wavenumber (k R ) , and determining the pathlength deviation (d) based on the determined difference (D) and a nominal value (D nom ) representing a reference value of a width of the absorption band. determining a first wavenumber (k L ) at which the determined absorption reaches a predetermined absorption level (C D ) for an absorption band of the sample and a second wavenumber (k R ) at which the determined absorption reaches the predetermined absorption level (C D ) for the absorption band, wherein the second wavenumber (k R ) is different from the first wavenumber (k L ) , determining a difference (D) between the first wavenumber (k L ) and the second wavenumber (k R ) , and determining the pathlength deviation (d) based on the determined difference (D) and a nominal value (D nom ) representing a reference value of a width of the absorption band.
A method for reducing deposits related to a reduction agent in a portion of an exhaust aftertreatment system of an internal combustion engine , said exhaust aftertreatment system comprising an injector for injecting the reduction agent into said exhaust aftertreatment system , and said portion of said exhaust aftertreatment system being located downstream of said injector , as seen in an intended direction of flow of exhaust gas in said exhaust aftertreatment system , said method comprising the steps of: a) identifying a future operating sequence for said internal combustion engine , said future operating sequence comprising a first temporal portion (t 1 ) and a second temporal portion (t 2 ), said second temporal portion (t 2 ) being subsequent to said first temporal portion (t 1 ), b) performing a confirmation procedure comprising: ∘ confirming that said future operating sequence is suitable for reducing said deposits and ∘ confirming that said internal combustion engine operates in accordance with said precedingly identified future operating sequence , c) in response to said confirmation procedure being affirmative, executing a deposit removal dosage procedure comprising controlling said injector such that a first dosage (d 1 ) of reduction agent is injected into said exhaust aftertreatment system during at least a part of said first temporal portion (t 1 ) and that a second dosage (d 2 ) of reduction agent is injected into said exhaust aftertreatment system during at least a part of said second temporal portion (t 2 ) said second dosage (d 2 ) being smaller than said first dosage (d 1 ). a) identifying a future operating sequence for said internal combustion engine , said future operating sequence comprising a first temporal portion (t 1 ) and a second temporal portion (t 2 ), said second temporal portion (t 2 ) being subsequent to said first temporal portion (t 1 ), b) performing a confirmation procedure comprising: ∘ confirming that said future operating sequence is suitable for reducing said deposits and ∘ confirming that said internal combustion engine operates in accordance with said precedingly identified future operating sequence , ∘ confirming that said future operating sequence is suitable for reducing said deposits and ∘ confirming that said internal combustion engine operates in accordance with said precedingly identified future operating sequence , c) in response to said confirmation procedure being affirmative, executing a deposit removal dosage procedure comprising controlling said injector such that a first dosage (d 1 ) of reduction agent is injected into said exhaust aftertreatment system during at least a part of said first temporal portion (t 1 ) and that a second dosage (d 2 ) of reduction agent is injected into said exhaust aftertreatment system during at least a part of said second temporal portion (t 2 ) said second dosage (d 2 ) being smaller than said first dosage (d 1 ).
A composite material blank comprising an elongate blank body extending between a first end face and a second end face ; said blank body extending in a longitudinal direction, parallel to a longitudinal axis thereof, and having four peripheral side faces ; each said first and second end face having edges (361a-364a; 361b-364b) which define a trapezoid shape; wherein the peripheral side faces of said blank body connect the edges (361a-364a) of said first end face with the edges (361b-364b) of said second end face ; Z r characterised in that said first trapezoid end face is inverted in relation to said second trapezoid end face . said blank body extending in a longitudinal direction, parallel to a longitudinal axis thereof, and having four peripheral side faces ; each said first and second end face having edges (361a-364a; 361b-364b) which define a trapezoid shape; wherein the peripheral side faces of said blank body connect the edges (361a-364a) of said first end face with the edges (361b-364b) of said second end face ; Z r characterised in that said first trapezoid end face is inverted in relation to said second trapezoid end face .
A method for producing an aqueous dispersion containing a tetrafluoroethylene copolymer, characterized by comprising a polymerization step of subjecting tetrafluoroethylene and a (perfluoroalkyl) ethylene represented by the following formula to a polymerization reaction, in an aqueous medium, using a polymerization initiator, in the presence of a fluorinated emulsifier selected from the group consisting of C 4-7 fluorinated carboxylic acids having from 1 to 4 etheric oxygen atoms, and salts thereof, to obtain an aqueous emulsion having particles of a tetrafluoroethylene copolymer dispersed with a solid content concentration of from 10 to 45 mass%, and a concentrating step of adding a nonionic surfactant represented by the following formula to the aqueous emulsion, followed by concentration to a solid content concentration of from 50 to 70 mass% to obtain an aqueous dispersion, wherein in the polymerization step, tetrafluoroethylene is continuously or intermittently supplied to the polymerization reaction vessel, the (perfluoroalkyl) ethylene is initially added all at once, and a chain transfer agent is added at the time when from 10 to 95 mass% of the total mass of tetrafluoroethylene to be used in the polymerization reaction has been supplied, CH 2 =CH-Rf in the formula , Rf is a C 1-7 perfluoroalkyl group, R 1 -O-A-H wherein R 1 is a C 8-18 alkyl group, and A is a polyoxyalkylene chain composed of an average repeating number of from 5 to 20 oxyethylene groups and an average repeating number of from 0 to 2 oxypropylene groups.
A dielectric waveguide for propagating electromagnetic signals, the dielectric waveguide comprising: a cladding having a body composed of a first dielectric material, the body defining a core region therethrough that is filled with a second dielectric material different than the first dielectric material, the cladding further including at least three ribs extending from an outer surface of the body to distal ends ; and a shell engaging the distal ends of the ribs and peripherally surrounding the cladding such that air gaps are defined radially between the outer surface of the body and an interior surface of the shell , the shell having a polygonal cross-sectional shape with multiple linear walls and corners at intersections between adjacent linear walls, the distal ends of the ribs engaging the corners of the shell , wherein each of the ribs extend longitudinally for substantially the entire length of the body of the cladding between first and second ends of the dielectric waveguide , and at least one air gap is formed between two adjacent ribs , and wherein the ribs are integral to the body as a unitary, one-piece cladding such that the ribs are composed of the first dielectric material. a cladding having a body composed of a first dielectric material, the body defining a core region therethrough that is filled with a second dielectric material different than the first dielectric material, the cladding further including at least three ribs extending from an outer surface of the body to distal ends ; and a shell engaging the distal ends of the ribs and peripherally surrounding the cladding such that air gaps are defined radially between the outer surface of the body and an interior surface of the shell , the shell having a polygonal cross-sectional shape with multiple linear walls and corners at intersections between adjacent linear walls, the distal ends of the ribs engaging the corners of the shell , wherein each of the ribs extend longitudinally for substantially the entire length of the body of the cladding between first and second ends of the dielectric waveguide , and at least one air gap is formed between two adjacent ribs , and wherein the ribs are integral to the body as a unitary, one-piece cladding such that the ribs are composed of the first dielectric material.
A porous carbon sheet comprising a carbon fiber and a binding material, wherein when layers obtained by dividing the carbon sheet in a thickness direction into six equal parts under compression at 0.15 MPa within a section extending from one surface to the other surface include a layer 1, a layer 2, a layer 3, a layer 4, a layer 5 and a layer 6 in this order from the layer including one surface to the layer including the other surface, a layer having the largest filling rate under compression is the layer 2, and the filling rates of the layer 2, the layer 3, the layer 4, the layer 5 and the layer 6 under compression, when determined as described in the description on <Method for Measuring Filling Rates of Layers 1 to 6>, satisfy the relationship of: the layer 2 has the largest filling rate, and the layer 3 has the second largest filling rate, and wherein the thickness of the carbon sheet is 50 μm or more.
A temperature-compensated timepiece component having at least a portion fabricated from a glass consisting of, by weight percent from 65% to 99% of a silicon oxide; from 0.01 % to 1.5% of an aluminum oxide; at least one first alkali metal or alkaline earth metal; and up to 0.5% of an additive comprising at least one second alkali metal or alkaline earth metal, different from the first alkali metal or alkaline earth metal.
A washing agent packaged in portions in a wrapping which is made of a water-soluble material and has two chambers, which washing agent contains a combination of a peroxidic bleaching agent and acylhydrazone of the general formula (I), in which R 1 represents a CF 3 or a C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, phenyl, naphthyl, C 7-9 aralkyl, C 3-20 heteroalkyl or C 3-12 cycloheteroalkyl group, R 1 and R 3 represent, independently of one another, hydrogen or an optionally substituted C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, C 7-9 aralkyl, C 3-28 heteroalkyl, C 3-12 cycloheteroalkyl, C 5-16 heteroaralkyl, phenyl, naphthyl or heteroaryl group, or R 2 and R 3 , together with the carbon atom which binds them, represent an optionally substituted 5-, 6-, 7-, 8- or 9- membered ring which can optionally contain heteroatoms, and R 4 represents hydrogen or a C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, C 7-9 aralkyl, C 3-20 heteroalkyl, C 3-12 cycloheteroalkyl, C 5-16 heteroaralkyl group or an optionally substituted phenyl or naphthyl or heteroaryl group, wherein the first chamber contains a liquid partial composition and the second chamber contains a solid partial composition, and the partial compositions differ from one another in at least one ingredient and/or in the content of at least one ingredient, and wherein a partial composition comprises acylhydrazone and a further partial composition which is separate therefrom comprises a peroxidic bleaching agent, wherein the former partial composition does not comprise a peroxidic bleaching agent and the latter partial composition does not comprise acylhydrazone, and the partial composition in which the acylhydrazone is present has a pH of up to pH 7, and the partial composition in which the peroxidic bleaching agent is present has a pH that is higher than pH 7.
A compound represented by one of the chemical formulae , , to and to below:
A communications method, comprising: receiving (S203) a random access configuration index, wherein there is a correspondence between the random access configuration index and a candidate time domain resource in a random access system frame, wherein slot indexes of the candidate time domain resource in the system frame comprise or { 13, 14, 15, 29, 30, 31, 37 38, 39} , wherein the slot indexes of the candidate time domain resource satisfies three factors: first, a slot identified by the slot indexes is in the second half of an uplink-downlink configuration period, second, a slot identified by the slot indexes is a slot other than a candidate slot of a synchronization channel block, third, a slot identified by the slot indexes is a slot having a smallest collision probability with a candidate time domain position of a control resource set; determining, (S203), by a terminal device, the candidate time domain resource based on the random access configuration index and the correspondence, wherein the candidate time domain resource comprises one or more first time units; and communicating with a network device based on the candidate time domain resource. receiving (S203) a random access configuration index, wherein there is a correspondence between the random access configuration index and a candidate time domain resource in a random access system frame, wherein slot indexes of the candidate time domain resource in the system frame comprise or { 13, 14, 15, 29, 30, 31, 37 38, 39} , wherein the slot indexes of the candidate time domain resource satisfies three factors: first, a slot identified by the slot indexes is in the second half of an uplink-downlink configuration period, second, a slot identified by the slot indexes is a slot other than a candidate slot of a synchronization channel block, third, a slot identified by the slot indexes is a slot having a smallest collision probability with a candidate time domain position of a control resource set; determining, (S203), by a terminal device, the candidate time domain resource based on the random access configuration index and the correspondence, wherein the candidate time domain resource comprises one or more first time units; and communicating with a network device based on the candidate time domain resource.
A compound or a pharmaceutically acceptable salt thereof, wherein the compound is selected from the group consisting of:
A sole plate for an article of footwear, comprising: a forward portion , an intermediate portion , and a rearward portion , defining a central longitudinal axis extending in a direction from the forward portion to the rearward portion bisecting the intermediate portion , the central longitudinal axis being approximately aligned with a midline of the sole plate , and the central longitudinal axis dividing the sole plate into two opposing sides along a lateral axis , wherein the forward portion is disposed substantially toward a first side of the central longitudinal axis relative to the rearward portion such that the forward portion and the rearward portion are laterally offset with respect to one another; a compartment disposed within the intermediate portion , wherein the compartment comprises a cavity surrounded by a perimeter; wherein the cavity comprises four sidewalls and at least two tabs extending from the perimeter towards a center of the cavity , the at least two tabs positioned along the same one of the four sidewalls and aligned with one of the central longitudinal axis and the lateral axis . a forward portion , an intermediate portion , and a rearward portion , defining a central longitudinal axis extending in a direction from the forward portion to the rearward portion bisecting the intermediate portion , the central longitudinal axis being approximately aligned with a midline of the sole plate , and the central longitudinal axis dividing the sole plate into two opposing sides along a lateral axis , wherein the forward portion is disposed substantially toward a first side of the central longitudinal axis relative to the rearward portion such that the forward portion and the rearward portion are laterally offset with respect to one another; a compartment disposed within the intermediate portion , wherein the compartment comprises a cavity surrounded by a perimeter; wherein the cavity comprises four sidewalls and at least two tabs extending from the perimeter towards a center of the cavity , the at least two tabs positioned along the same one of the four sidewalls and aligned with one of the central longitudinal axis and the lateral axis .