mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for updating and refining the X, Y positions of an ocean bottom node for use in creating a seismic survey through the use of data that has been sensed and collected by the node after emission from an energy shot source and in regard to energy intensity and energy arrival time at the node , comprising the steps of: a) conditioning the data retrieved from the node ; b) performing a position estimation routine on the conditioned data, comprising computing the standard deviation of a traveltime error of all traces within a first predetermined distance of a model node position; c) performing a position estimation sub-routine on the conditioned data to determine a refined position of the node , comprising comparing the computed standard deviation of the model node position with a computed, new standard deviation of a current node position, and if the new standard deviation is lower, then assigning it as the new best standard deviation and the current position as the new best position, but if the new standard deviation is greater than the previous best then not changing the best position and standard deviation; d) performing a post-position processing of the data; and e) outputting the data. a) conditioning the data retrieved from the node ; b) performing a position estimation routine on the conditioned data, comprising computing the standard deviation of a traveltime error of all traces within a first predetermined distance of a model node position; c) performing a position estimation sub-routine on the conditioned data to determine a refined position of the node , comprising comparing the computed standard deviation of the model node position with a computed, new standard deviation of a current node position, and if the new standard deviation is lower, then assigning it as the new best standard deviation and the current position as the new best position, but if the new standard deviation is greater than the previous best then not changing the best position and standard deviation; d) performing a post-position processing of the data; and e) outputting the data.
A method of preparing a humidity-activated material in a form of a coating or film comprising: (a) dispersing a volatile component having a boiling point between 40°C and 300°C in an aqueous solution or dispersion of a binder component to give a mixture; (b) casting the mixture onto a packaging material or solid substrate; and (c) solidifying the mixture to generate a coating on the packaging material or solid substrate; wherein the binder component comprises polyvinyl alcohol; wherein the mixture has a viscosity of from 100 to 50,000 mPa*s (cPs) at 25°C and wherein the solidifying step comprises drying with a stream of gas. (a) dispersing a volatile component having a boiling point between 40°C and 300°C in an aqueous solution or dispersion of a binder component to give a mixture; (b) casting the mixture onto a packaging material or solid substrate; and (c) solidifying the mixture to generate a coating on the packaging material or solid substrate; wherein the binder component comprises polyvinyl alcohol; wherein the mixture has a viscosity of from 100 to 50,000 mPa*s (cPs) at 25°C and wherein the solidifying step comprises drying with a stream of gas. wherein the binder component comprises polyvinyl alcohol; wherein the mixture has a viscosity of from 100 to 50,000 mPa*s (cPs) at 25°C and wherein the solidifying step comprises drying with a stream of gas.
A device for dynamically reducing interference for a multi-carrier communication receiver, wherein the device is configured to: calculate a set of channel estimates for a plurality of sub-carriers based on a plurality of pilot-symbols and/or data-symbols carried by said plurality of sub-carriers ; calculate a set of equalizers for the plurality of sub-carriers based on the set of channel estimates ; perform an equalization on a plurality of data-symbols using the set of equalizers for obtaining a plurality of equalized symbols ; perform a soft-slicing or hard-slicing procedure comprising obtaining a plurality of estimated symbols based on the equalized symbols ; calculate at least one diagonal-loaded interference-plus-noise covariance matrix , based on the set of estimated symbols , wherein the at least one diagonal-loaded interference-plus-noise covariance matrix is calculated by: calculating at least one interference-plus-noise covariance matrix based on the set of estimated symbols and adding a diagonal matrix to the at least one interference-plus-noise covariance matrix; de-map the plurality of data symbols to soft-bits , based on the at least one diagonal-loaded interference-plus-noise covariance matrix , the set of channel estimates or an updated version thereof; and feed the soft-bits to a channel decoder. calculate a set of channel estimates for a plurality of sub-carriers based on a plurality of pilot-symbols and/or data-symbols carried by said plurality of sub-carriers ; calculate a set of equalizers for the plurality of sub-carriers based on the set of channel estimates ; perform an equalization on a plurality of data-symbols using the set of equalizers for obtaining a plurality of equalized symbols ; perform a soft-slicing or hard-slicing procedure comprising obtaining a plurality of estimated symbols based on the equalized symbols ; calculate at least one diagonal-loaded interference-plus-noise covariance matrix , based on the set of estimated symbols , wherein the at least one diagonal-loaded interference-plus-noise covariance matrix is calculated by: calculating at least one interference-plus-noise covariance matrix based on the set of estimated symbols and adding a diagonal matrix to the at least one interference-plus-noise covariance matrix; de-map the plurality of data symbols to soft-bits , based on the at least one diagonal-loaded interference-plus-noise covariance matrix , the set of channel estimates or an updated version thereof; and feed the soft-bits to a channel decoder.
A cartridge for an aerosol delivery device, comprising: an outer body ; a flow director coupled to the outer body , a base coupled to the outer body ; a mouthpiece ; and an atomizer ; wherein the flow director , the mouthpiece , and the outer body define a reservoir compartment and the flow director and the base define an electronics compartment having an electronic control component positioned within, the base defining a recess configured to receive the electronic control component therein; characterized in that the atomizer is positioned in the reservoir compartment , in that the base comprises a ledge configured to support the electronic control component thereon and in that the flow director including one or more deformable ribs configured to engage the electronic control component when the outer body is coupled to the base such that the electronic control component is tightly sandwiched between the deformable ribs and the ledge in the recess of the base . an outer body ; a flow director coupled to the outer body , a base coupled to the outer body ; a mouthpiece ; and an atomizer ; wherein the flow director , the mouthpiece , and the outer body define a reservoir compartment and the flow director and the base define an electronics compartment having an electronic control component positioned within, the base defining a recess configured to receive the electronic control component therein; characterized in that the atomizer is positioned in the reservoir compartment , in that the base comprises a ledge configured to support the electronic control component thereon and in that the flow director including one or more deformable ribs configured to engage the electronic control component when the outer body is coupled to the base such that the electronic control component is tightly sandwiched between the deformable ribs and the ledge in the recess of the base .
Process for producing polycrystalline silicon comprising introducing a reaction gas containing silane and/or at least one halosilane as well as hydrogen into a reaction space of a gas phase deposition reactor, wherein the reaction space comprises at least one heated support body upon which by deposition silicon is deposited to form the polycrystalline silicon, wherein for detection of dust depositions at least one measuring apparatus is used to determine the haze inside the reaction space during the deposition.
Device for limiting or regulating the temperature in a cooking utensil , intended to be heated by an electromagnetic induction generator , said device comprising: - a holding body of a coil , said holding body comprising a nonmagnetic and non-conductive part intended to face the electromagnetic induction generator with respect to the coil , - the coil held by the holding body , and - an impedance transition means connected to the coil and having: - a first operating state (E1), wherein the coil is placed in a first electrical state (O) of high impedance, - a second operating state (E2), wherein the coil is placed in a second electrical state (F) of low impedance, characterized in that said device having a thermal operating mode, wherein the impedance transition means passes from the first operating state (E1) thereof the second operating state (E2) thereof and vice versa according to predetermined temperature conditions of the impedance transition means . - a holding body of a coil , said holding body comprising a nonmagnetic and non-conductive part intended to face the electromagnetic induction generator with respect to the coil , - the coil held by the holding body , and - an impedance transition means connected to the coil and having: - a first operating state (E1), wherein the coil is placed in a first electrical state (O) of high impedance, - a second operating state (E2), wherein the coil is placed in a second electrical state (F) of low impedance, characterized in that said device having a thermal operating mode, wherein the impedance transition means passes from the first operating state (E1) thereof the second operating state (E2) thereof and vice versa according to predetermined temperature conditions of the impedance transition means . - a first operating state (E1), wherein the coil is placed in a first electrical state (O) of high impedance, - a second operating state (E2), wherein the coil is placed in a second electrical state (F) of low impedance,
Method for applying a mineral binder composition by 3D printing, comprising the steps of - providing a hydrous mineral binder composition, - feeding the hydrous mineral binder composition, especially by a pump, to a continuous mixer comprising • a mixing region comprising at least one dynamic mixing element and at least one inlet , • a conveying region connected to the mixing region and comprising at least one conveying device and an outlet , the hydrous mineral binder composition being conveyed through the at least one inlet into the mixing region , - feeding at least one aqueous accelerator for the setting of the hydrous mineral binder composition into the mixing region of the continuous mixer , - mixing the at least one aqueous accelerator with the hydrous binder composition in the mixing region of the continuous mixer to give an accelerated binder composition, - conveying the accelerated binder composition by the conveying device to the outlet , and - applying the accelerated binder composition layer by layer, in particular by way of a movable printing head, characterized in that the method is a method for producing shaped bodies by applying a formable material in a plurality of layers or relatively small portions, where a solid shaped body is formed after curing and where the layers in this case are not applied by spraying. - providing a hydrous mineral binder composition, - feeding the hydrous mineral binder composition, especially by a pump, to a continuous mixer comprising • a mixing region comprising at least one dynamic mixing element and at least one inlet , • a conveying region connected to the mixing region and comprising at least one conveying device and an outlet , the hydrous mineral binder composition being conveyed through the at least one inlet into the mixing region , • a mixing region comprising at least one dynamic mixing element and at least one inlet , • a conveying region connected to the mixing region and comprising at least one conveying device and an outlet , - feeding at least one aqueous accelerator for the setting of the hydrous mineral binder composition into the mixing region of the continuous mixer , - mixing the at least one aqueous accelerator with the hydrous binder composition in the mixing region of the continuous mixer to give an accelerated binder composition, - conveying the accelerated binder composition by the conveying device to the outlet , and - applying the accelerated binder composition layer by layer, in particular by way of a movable printing head, characterized in that the method is a method for producing shaped bodies by applying a formable material in a plurality of layers or relatively small portions, where a solid shaped body is formed after curing and where the layers in this case are not applied by spraying.
An oncolytic virus comprising a transgene cassette encoding an anti-CD40 antibody, wherein the virus comprises SEQ ID NO: 1.
Sensor device for a motor vehicle having - at least one optical sensor and having - a protective screen mounted upstream of the sensor in a viewing direction of the sensor ; - a fluid dispenser for applying a fluid (F) to an outer surface of the protective screen facing away from the sensor ; - wherein the protective screen is rotatably mounted about an axis of rotation and can be set in rotation by means of a drive device; - the axis of rotation of the protective screen is parallel to the viewing direction of the sensor ; and - in a plan view of the protective screen , the sensor is positioned offset to the axis of rotation of the protective screen . wherein the sensor device is characterized by the following features: - the sensor device comprises an air blower nozzle for blowing compressed air onto the outer surface of the protective screen ; and - in a plan view of the outer surface of the protective screen , the air blower nozzle is arranged downstream of the fluid dispenser in the direction of rotation of the protective screen . - at least one optical sensor and having - a protective screen mounted upstream of the sensor in a viewing direction of the sensor ; - a fluid dispenser for applying a fluid (F) to an outer surface of the protective screen facing away from the sensor ; - wherein the protective screen is rotatably mounted about an axis of rotation and can be set in rotation by means of a drive device; - the axis of rotation of the protective screen is parallel to the viewing direction of the sensor ; and - in a plan view of the protective screen , the sensor is positioned offset to the axis of rotation of the protective screen . - the sensor device comprises an air blower nozzle for blowing compressed air onto the outer surface of the protective screen ; and - in a plan view of the outer surface of the protective screen , the air blower nozzle is arranged downstream of the fluid dispenser in the direction of rotation of the protective screen .
A sheet conveyor comprising: a conveyance belt configured to rotate to convey a sheet on which a liquid has been applied in a conveyance direction; a guide configured to guide the sheet to the conveyance belt , a position of the guide being variable in the conveyance direction; the sheet conveyor characterised by another guide disposed upstream of the guide in the conveyance direction, said another guide configured to guide the sheet to the guide , wherein a downstream end of said another guide in the conveyance direction is disposed directly above an upstream end of the guide in the conveyance direction. a conveyance belt configured to rotate to convey a sheet on which a liquid has been applied in a conveyance direction; a guide configured to guide the sheet to the conveyance belt , a position of the guide being variable in the conveyance direction; the sheet conveyor characterised by another guide disposed upstream of the guide in the conveyance direction, said another guide configured to guide the sheet to the guide , wherein a downstream end of said another guide in the conveyance direction is disposed directly above an upstream end of the guide in the conveyance direction.
A misfire determination device of an engine in which explosion occurs at unequal intervals, the engine including a plurality of cylinders and a crankshaft which is angularly displaced at a different angle between expansion strokes, the misfire determination device being configured to calculate a generated torque correlation amount correlated with torque generated in the crankshaft , based on an angular position signal of the crankshaft , and perform misfire determination, based on an average value of the generated torque correlation amount in an interval less than one cycle of the engine , at an angular position of the crankshaft which is different from an angular position of the crankshaft at an ignition timing, wherein the angular position of the crankshaft at which the misfire determination is performed is set for each of the plurality of cylinders for which the misfire determination is to be performed, and angular positions corresponding to the plurality of cylinders , respectively, have values different from each other.
A follower assembly (40; 2340; 3200) for a firearm drum magazine , the follower assembly (40; 2340; 3200) comprising: a plurality of dummy cartridges comprising a leading dummy cartridge and a last dummy cartridge ; and a plurality of links comprising a leading link and a last link; wherein the plurality of dummy cartridges are linked by the plurality of links and the last dummy cartridge is configured to rotate relative to the last link and the leading link , characterized in that the plurality of links forms a kinematic chain independent of the plurality of dummy cartridges .
Weapon system having at least one ammunition feeding device of a belted ammunition for delivery before a breech or a breech head, the ammunition being extracted from the ammunition belt and delivered to the breech by a cartridge hook , the cartridge hook being carried along or placed in a deactivating manner by the breech when the breech travels a distance backward or forward, characterized in that the cartridge hook is incorporated in the weapon system in such a way that the ammunition is only extracted from the ammunition belt when the breech has already travelled a distance (W).
A static mixer for mixing together at least two components comprising: - a mixer housing ; - a mixing element arranged at least partly within the mixer housing ; and - a mixer inlet section having at least two inlets (18a; 18b) provided at an input side and at least two outlets provided at an output surface ; wherein the at least two outlets are in fluid communication with the at least two inlets ; and wherein the mixer housing , the mixing element and the mixer inlet section are formed as separate elements, characterized in that the mixing element comprises a plug element and the mixer inlet section comprises a counter plug element engaging the plug element ; and in that the mixing element and the mixer inlet section are plugged together in a rotationally fixed manner by means of a plugged connection. - a mixer housing ; - a mixing element arranged at least partly within the mixer housing ; and - a mixer inlet section having at least two inlets (18a; 18b) provided at an input side and at least two outlets provided at an output surface ; wherein the at least two outlets are in fluid communication with the at least two inlets ; and wherein the mixer housing , the mixing element and the mixer inlet section are formed as separate elements,
A method for producing a steel profile, said method comprising the steps of: providing a workpiece , in particular a steel blank, preferably a steel strip blank, forming a weakened point in the region of a planned bend in the workpiece , bending the workpiece to produce a bend in the workpiece , wherein the weakened point is formed by forming an indentation in the workpiece , wherein the indentation forming the weakened point is formed by milling, characterized in that the weakened point after bending is reinforced by laser welding, and that the indentation is formed on an inner side of the bend in the workpiece and is reduced in size or closed during bending, wherein the indentation is closed after bending by laser welding, wherein welding is done by using a focused laser beam which is aimed from the outer side of the bend in the workpiece to the inner side of the bend along a zero gap formed by the indentation after bending, the focus of said beam being inside the workpiece . providing a workpiece , in particular a steel blank, preferably a steel strip blank, forming a weakened point in the region of a planned bend in the workpiece , bending the workpiece to produce a bend in the workpiece , wherein the weakened point is formed by forming an indentation in the workpiece , wherein the indentation forming the weakened point is formed by milling, characterized in that the weakened point after bending is reinforced by laser welding, and that the indentation is formed on an inner side of the bend in the workpiece and is reduced in size or closed during bending, wherein the indentation is closed after bending by laser welding, wherein welding is done by using a focused laser beam which is aimed from the outer side of the bend in the workpiece to the inner side of the bend along a zero gap formed by the indentation after bending, the focus of said beam being inside the workpiece .
A method for motion compensation between first and second images in a temporal sequence, said method comprising: deriving respective first and second feature maps from said first and second images; deriving a displacement field by processing said first and second feature maps in accordance with a registration algorithm, characterized in that said registration algorithm comprises solving, for each picture element or voxel, a local Gaussian weighted least mean square problem so as to derive respective vectors forming said displacement field; and in that the method further comprises warping said second image with said displacement field. deriving respective first and second feature maps from said first and second images; deriving a displacement field by processing said first and second feature maps in accordance with a registration algorithm, characterized in that said registration algorithm comprises solving, for each picture element or voxel, a local Gaussian weighted least mean square problem so as to derive respective vectors forming said displacement field; and in that the method further comprises warping said second image with said displacement field.
A filter element for a filtration system, the filter element comprising: a filter body ; a filter media disposed within the filter body ; and a data storage element associated with the filter element, wherein the data storage element is integrated with, or disposed on or in the filter element, characterized in that the data storage element comprises operational program data, the operational program data comprising at least one of: an algorithm definition; an operating software update; and a firmware update. a filter body ; a filter media disposed within the filter body ; and a data storage element associated with the filter element, wherein the data storage element is integrated with, or disposed on or in the filter element, characterized in that the data storage element comprises operational program data, the operational program data comprising at least one of: an algorithm definition; an operating software update; and a firmware update. an algorithm definition; an operating software update; and a firmware update.