mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing aviation fuel component, the method comprising a) providing a feedstock comprising 75-95% by weight fossil hydrotreatment feed and 5-25% by weight a second feed comprising esters of fatty acids and rosins, free fatty acids and resin acids, b) subjecting the feedstock to hydrotreatment reaction conditions to produce a hydrotreated stream, c) separating at least part of the hydrotreated stream to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure and ∘ a fraction boiling above 360 °C at atmospheric pressure, d) subjecting at least part of the fraction boiling above 360°C at atmospheric pressure to hydrocracking reaction conditions to produce a hydrocracked stream, e) admixing at least part of the hydrocracked stream with at least part of the hydrotreated stream to provide a fractionation stream, f) separating the fractionation stream at least to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure, ∘ a fraction boiling above 360 °C at atmospheric pressure, and g) separating the aviation fuel component from one or more fractions boiling between 180°C and 360 °C at atmospheric pressure. a) providing a feedstock comprising 75-95% by weight fossil hydrotreatment feed and 5-25% by weight a second feed comprising esters of fatty acids and rosins, free fatty acids and resin acids, b) subjecting the feedstock to hydrotreatment reaction conditions to produce a hydrotreated stream, c) separating at least part of the hydrotreated stream to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure and ∘ a fraction boiling above 360 °C at atmospheric pressure, ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure and ∘ a fraction boiling above 360 °C at atmospheric pressure, d) subjecting at least part of the fraction boiling above 360°C at atmospheric pressure to hydrocracking reaction conditions to produce a hydrocracked stream, e) admixing at least part of the hydrocracked stream with at least part of the hydrotreated stream to provide a fractionation stream, f) separating the fractionation stream at least to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure, ∘ a fraction boiling above 360 °C at atmospheric pressure, and ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure, ∘ a fraction boiling above 360 °C at atmospheric pressure, and g) separating the aviation fuel component from one or more fractions boiling between 180°C and 360 °C at atmospheric pressure.
An analysis and treatment device for at least one smoking article , comprising a closable receptacle for receiving the at least one smoking article therein; a reservoir for a fluid treatment material ; a hollow injection needle interiorly insertable into the smoking article received in the receptacle and operably connected to the reservoir ; means for moving the treatment material from the reservoir through the needle into the interior of the smoking article ; the device characterized in that it further includes at least one sensor means provided in the receptacle for detecting at least one parameter characterizing a property of the smoking article and/or characterizing the treatment conditions in the receptacle
A device for managing electrical consumption, comprising: - a plurality of connectors capable of each receiving a link to an electrical current line and suitable for forming input connectors and output connectors, - a processing circuit for managing the electrical consumption on the electrical current lines, to which it is connected, linked to at least one of the input connectors and to at least one of the output connectors , and comprising a printed circuit which receives electronic components , - a box being able to be installed in a low-voltage electrical distribution board, exhibiting two opposite ends and at least one opening along each end , and housing on the one hand the plurality of connectors along said opposite ends of the box , and on the other hand the processing circuit between said opposite ends , at least some of said openings remaining partially free when the connectors receive an electrical line, characterized in that the printed circuit of the processing circuit is disposed in the box so as to define a first separate space and a second separate space, the electronic components capable of conducting currents of at least 5A being received on the printed circuit so that they are housed in the first space with the plurality of connectors , substantially in proximity to one of said opposite ends of the box , the processing circuit comprising a measurement circuit designed to determine an instantaneous electrical consumption on one or more electrical lines linked to the output connectors and a control circuit designed to selectively interrupt the provision of current on one or more of the electrical lines linked to the output connectors , the printed circuit determining the first and second spaces being the printed circuit of the control circuit , and in which the printed circuit of the measurement circuit extends substantially orthogonally with respect to the printed circuit of the control circuit , so that the power conductors liable to liberate the most heat of the measurement circuit and of the control circuit are housed in the first space. - a plurality of connectors capable of each receiving a link to an electrical current line and suitable for forming input connectors and output connectors, - a processing circuit for managing the electrical consumption on the electrical current lines, to which it is connected, linked to at least one of the input connectors and to at least one of the output connectors , and comprising a printed circuit which receives electronic components , - a box being able to be installed in a low-voltage electrical distribution board, exhibiting two opposite ends and at least one opening along each end , and housing on the one hand the plurality of connectors along said opposite ends of the box , and on the other hand the processing circuit between said opposite ends , at least some of said openings remaining partially free when the connectors receive an electrical line,
An image processing apparatus comprising: obtainment means for obtaining a contrast material-enhanced image of an object; first region extraction means for extracting a first region representing a first anatomical portion of the object from the image; and estimation means for estimating a state of the image concerning a temporal change in gray level from the first region; characterized by second region extraction means for extracting a second region representing a second anatomical portion, different from the first anatomical portion, of the object from the image based on an estimation result obtained by the estimation means. obtainment means for obtaining a contrast material-enhanced image of an object; first region extraction means for extracting a first region representing a first anatomical portion of the object from the image; and estimation means for estimating a state of the image concerning a temporal change in gray level from the first region; characterized by second region extraction means for extracting a second region representing a second anatomical portion, different from the first anatomical portion, of the object from the image based on an estimation result obtained by the estimation means.
Electrostatic atomizer for liquids , especially cosmetics, wherein the atomizer comprises - a housing , - an electrical power source , - activating means , - a control electronics , - a high voltage source , - a liquid tank , - a conveying device and - atomizer nozzles (102a - 102h), - wherein the delivery device is arranged between the liquid tank and the atomizer nozzles (102a - 102h), - wherein the delivery device is connected to the liquid tank by a first conduit , and - wherein the delivery device draws liquid from the liquid tank and delivers it to the atomizer nozzles (102a - 102h), characterized in that - the conveying device is connected to the atomizer nozzles (102a - 102h) by a second conduit, - the first conduit , the second conduit and a delivery hose are formed in one piece and are formed as a connecting hose - the first conduit as well as the second conduit comprises several hoses and one hose per atomizer nozzle (102a - 102h) leads from the nozzle through the conveying device to the liquid tank . - a housing , - an electrical power source , - activating means , - a control electronics , - a high voltage source , - a liquid tank , - a conveying device and - atomizer nozzles (102a - 102h), - wherein the delivery device is arranged between the liquid tank and the atomizer nozzles (102a - 102h), - wherein the delivery device is connected to the liquid tank by a first conduit , and - wherein the delivery device draws liquid from the liquid tank and delivers it to the atomizer nozzles (102a - 102h), - the conveying device is connected to the atomizer nozzles (102a - 102h) by a second conduit, - the first conduit , the second conduit and a delivery hose are formed in one piece and are formed as a connecting hose - the first conduit as well as the second conduit comprises several hoses and one hose per atomizer nozzle (102a - 102h) leads from the nozzle through the conveying device to the liquid tank .
A composition in the form of granules which comprise: (i) 95 to 98 % by weight layered double hydroxide (LDH) of molecular formula [M 2+ 1-x M 3+ x (OH) 2 ] q+ (X n- ) q/n · y H 2 O; where, M 2+ is at least one of Ca 2+ , Mg 2+ , Mn 2+ , Fe 2+ , Co 2+ , Ni 2+ , Cu 2+ or Zn 2+ ; M 3+ is at least one of Al 3+ , Fe 3+ , Cr 3+ , Ga 3+ or V 3+ , X is an interlayer anion which is at least one of Cl - , Br - , NO 3 - , CO 3 2- , SO 4 2- or SeO 4 2- ; and "x" is the molar metal ratio from 0.1 to 0.33. (ii) 0.3 to 2 % by weight inorganic binder which is at least one of gypsum, limestone, chalk, alumina silicate, fly ash, bentonite, bitumen, calcium aluminate, clay, hydrated lime or sodium silicate, cement, preferably white cement; and, (iii) 0.2 to 1.5 % by weight organic binder having molecular weight 1000 to 500,000 Daltons and decomposition temperature ≤ 400 °C , which is at least one of poly vinyl alcohol, polyethylene glycol, polyvinyl pyrollidone, polyacrylic acid, starch, cellulose, alginates, agar, gelatine or guar gum. (i) 95 to 98 % by weight layered double hydroxide (LDH) of molecular formula [M 2+ 1-x M 3+ x (OH) 2 ] q+ (X n- ) q/n · y H 2 O; where, M 2+ is at least one of Ca 2+ , Mg 2+ , Mn 2+ , Fe 2+ , Co 2+ , Ni 2+ , Cu 2+ or Zn 2+ ; M 3+ is at least one of Al 3+ , Fe 3+ , Cr 3+ , Ga 3+ or V 3+ , X is an interlayer anion which is at least one of Cl - , Br - , NO 3 - , CO 3 2- , SO 4 2- or SeO 4 2- ; and "x" is the molar metal ratio from 0.1 to 0.33. M 2+ is at least one of Ca 2+ , Mg 2+ , Mn 2+ , Fe 2+ , Co 2+ , Ni 2+ , Cu 2+ or Zn 2+ ; M 3+ is at least one of Al 3+ , Fe 3+ , Cr 3+ , Ga 3+ or V 3+ , X is an interlayer anion which is at least one of Cl - , Br - , NO 3 - , CO 3 2- , SO 4 2- or SeO 4 2- ; and "x" is the molar metal ratio from 0.1 to 0.33. (ii) 0.3 to 2 % by weight inorganic binder which is at least one of gypsum, limestone, chalk, alumina silicate, fly ash, bentonite, bitumen, calcium aluminate, clay, hydrated lime or sodium silicate, cement, preferably white cement; and, (iii) 0.2 to 1.5 % by weight organic binder having molecular weight 1000 to 500,000 Daltons and decomposition temperature ≤ 400 °C , which is at least one of poly vinyl alcohol, polyethylene glycol, polyvinyl pyrollidone, polyacrylic acid, starch, cellulose, alginates, agar, gelatine or guar gum.
Method of photoplethysmography, including: using a signal processing system for processing a signal (46;56) based on at least one signal (35;50) from at least one sensor (5;18-20;26;63) arranged to capture light from a living subject to extract information on a characteristic of a periodic biological phenomenon, wherein at least one of the signals (35;50) from at least one sensor (5;18-20;26;63) is obtained by using at least one of a light source (1;11-13) and a filter (6;17;64) placed before the at least one sensor (5;18,19,20;26;63) characterised in that said filter is tuned to a wavelength corresponding to a peak of an absorption spectrum of water. using a signal processing system for processing a signal (46;56) based on at least one signal (35;50) from at least one sensor (5;18-20;26;63) arranged to capture light from a living subject to extract information on a characteristic of a periodic biological phenomenon, wherein at least one of the signals (35;50) from at least one sensor (5;18-20;26;63) is obtained by using at least one of a light source (1;11-13) and a filter (6;17;64) placed before the at least one sensor (5;18,19,20;26;63) characterised in that said filter is tuned to a wavelength corresponding to a peak of an absorption spectrum of water.
A system for automatic geofence determination, comprising: an interface configured to receive data for one or more trips of a vehicle; and a processor configured to: determine a set of nodes for each trip of the one or more trips, wherein a node of the set of nodes is determined based at least in part on the data, wherein the set of nodes for each trip comprises a set of locations that the vehicle stopped, wherein a node is discarded from the set of nodes where a reason for the vehicle stop is other than a vehicle route stop of the vehicle; determine a set of clusters using the set of nodes for each trip, wherein a cluster is a group of nodes separate from another group of nodes, wherein cluster boundaries are determined: where a distance between two nodes is above a threshold; where a node density drops below a threshold; or where the node density forms an inflection point; and determine a set of geofences based at least in part on the set of clusters. an interface configured to receive data for one or more trips of a vehicle; and a processor configured to: determine a set of nodes for each trip of the one or more trips, wherein a node of the set of nodes is determined based at least in part on the data, wherein the set of nodes for each trip comprises a set of locations that the vehicle stopped, wherein a node is discarded from the set of nodes where a reason for the vehicle stop is other than a vehicle route stop of the vehicle; determine a set of clusters using the set of nodes for each trip, wherein a cluster is a group of nodes separate from another group of nodes, wherein cluster boundaries are determined: where a distance between two nodes is above a threshold; where a node density drops below a threshold; or where the node density forms an inflection point; and determine a set of geofences based at least in part on the set of clusters. determine a set of nodes for each trip of the one or more trips, wherein a node of the set of nodes is determined based at least in part on the data, wherein the set of nodes for each trip comprises a set of locations that the vehicle stopped, wherein a node is discarded from the set of nodes where a reason for the vehicle stop is other than a vehicle route stop of the vehicle; determine a set of clusters using the set of nodes for each trip, wherein a cluster is a group of nodes separate from another group of nodes, wherein cluster boundaries are determined: where a distance between two nodes is above a threshold; where a node density drops below a threshold; or where the node density forms an inflection point; and determine a set of geofences based at least in part on the set of clusters.
A rotating anode assembly , comprising: - an anode disk having a bore ; - a rotating shaft ; and - an anode disk support ; wherein the anode disk is concentrically mounted to a rotating axis of the rotating shaft via the anode disk support; wherein the anode disk support comprises a first support with a first circular axial support surface that is provided at the rotating shaft in a concentric manner with the rotating axis; and wherein the anode disk support comprises a second support with a second axial support surface that is at least temporarily attached to the rotating shaft for urging the anode disk against the first support surface in an axial clamping direction; wherein the first support is provided as a radially flexible support ; wherein, upon heating up of the anode disk during X-ray generation, and a thermal expansion of the anode disk, the radially flexible support bends radially such that the first axial support surface at least partly follows the thermal expansion in a radial direction; wherein the first support has a larger resistance to forces in the axial direction than in the radial direction; wherein the first support is provided protruding in an axial direction from a shoulder on the rotating shaft; wherein at least a circumferential radial gap to a shaft-end extending through the bore of the anode disk is provided; wherein, in an axial cross-section, an axial height of the first support is at least the double amount of the radial width or the first support. - an anode disk having a bore ; - a rotating shaft ; and - an anode disk support ; wherein the anode disk is concentrically mounted to a rotating axis of the rotating shaft via the anode disk support; wherein the anode disk support comprises a first support with a first circular axial support surface that is provided at the rotating shaft in a concentric manner with the rotating axis; and wherein the anode disk support comprises a second support with a second axial support surface that is at least temporarily attached to the rotating shaft for urging the anode disk against the first support surface in an axial clamping direction; wherein the first support is provided as a radially flexible support ; wherein, upon heating up of the anode disk during X-ray generation, and a thermal expansion of the anode disk, the radially flexible support bends radially such that the first axial support surface at least partly follows the thermal expansion in a radial direction; wherein the first support has a larger resistance to forces in the axial direction than in the radial direction; wherein the first support is provided protruding in an axial direction from a shoulder on the rotating shaft; wherein at least a circumferential radial gap to a shaft-end extending through the bore of the anode disk is provided; wherein, in an axial cross-section, an axial height of the first support is at least the double amount of the radial width or the first support.
High strength austenitic steel having remarkable toughness in a welding heat-affected zone, consisting of 0.8-1.5 wt% of C, 15-22 wt% of Mn, 5 wt% or less of Cr, except 0, and the balance of Fe and inevitable impurities, and further comprising at least one of (a) and (b), and optionally including 2 wt % or less of Cu, wherein the steel is a hot-rolled and welded steel, wherein the microstructure of a welding heat-affected zone comprises 90% or more of austenite and 10% or less of carbide by volume fraction, wherein the welding heat-affected zone has 50 J or more of a Charpy impact value at -40°C, and the steel has 450 MPa or more of yield strength: (a) both Mo: 0.1-1 wt% and B: 0.001-0.02 wt% (b) both Ti: 0.01-0.3 wt% and N: 0.003-0.1 wt%. (a) both Mo: 0.1-1 wt% and B: 0.001-0.02 wt% (b) both Ti: 0.01-0.3 wt% and N: 0.003-0.1 wt%.
A method of installing a control suitable for use in an ablutionary setting, comprising the steps: affixing a back plate to a mounting surface, the back plate comprising; a first valve, the first valve comprising a control lever ; and an actuator comprising a first surface and a second surface , the first surface configured to contact a surface of the control lever ; adjusting the actuator ; affixing a faceplate to the back plate , the faceplate comprising a control member arranged to operably connect to the second surface of the actuator; wherein the step of adjusting the actuator comprises adjusting the actuator such that the distance between the first surface and second surface is lengthened or shortened, wherein during the adjusting the first surface remains in a substantially constant position relative to the back plate . affixing a back plate to a mounting surface, the back plate comprising; a first valve, the first valve comprising a control lever ; and an actuator comprising a first surface and a second surface , the first surface configured to contact a surface of the control lever ; adjusting the actuator ; affixing a faceplate to the back plate , the faceplate comprising a control member arranged to operably connect to the second surface of the actuator; wherein the step of adjusting the actuator comprises adjusting the actuator such that the distance between the first surface and second surface is lengthened or shortened, wherein during the adjusting the first surface remains in a substantially constant position relative to the back plate .
Electrolyzer comprising a cell rack and a cell stack , wherein the cell stack comprises a plurality of electrolysis cells stacked in an axial direction (A), wherein the cell rack comprises a compression device for compressing the electrolysis cells of the cell stack in the axial direction (A) in order to maintain electrical connection of the cells in series, and wherein the cell stack is mounted in the cell rack with the axial direction (A) extending horizontally, wherein the electrolysis cells each comprise a cell casing and a sheet-like separator , wherein an anode chamber and a cathode chamber separated by the sheet-like separator are defined by the cell casing and wherein the anode chamber and the cathode chamber comprise an anode and a cathode , respectively, characterized in that the cell casing comprises at least two sheets of metal foil each having a circumferential rim region , wherein the sheets of metal foil are affixed to each other in the rim regions by an electrically isolating adhesive bond between the sheets of metal foil , and wherein the sheet-like separator is mounted in the cell by being included in the adhesive bond between the rim regions .
A method for wireless communication, comprising: receiving , by a first user equipment, UE, a resource grant on a first carrier for a second carrier, the resource grant assigning resources for the second carrier; and communicating with a second UE via the second carrier using the granted resources, wherein the resource grant is received at an nth downlink subframe of the first carrier, characterized by : wherein the granted resources are valid for an nth + z offset + x offset subframe of the second carrier, wherein the z offset is associated with a resource grant offset , and wherein the x offset is associated with a timing offset between the first carrier and the second carrier. receiving , by a first user equipment, UE, a resource grant on a first carrier for a second carrier, the resource grant assigning resources for the second carrier; and communicating with a second UE via the second carrier using the granted resources, wherein the resource grant is received at an nth downlink subframe of the first carrier, characterized by : wherein the granted resources are valid for an nth + z offset + x offset subframe of the second carrier, wherein the z offset is associated with a resource grant offset , and wherein the x offset is associated with a timing offset between the first carrier and the second carrier. wherein the granted resources are valid for an nth + z offset + x offset subframe of the second carrier, wherein the z offset is associated with a resource grant offset , and wherein the x offset is associated with a timing offset between the first carrier and the second carrier.