mhurhangee/patent-ind-claim-en huggingface dataset:
A method of locally influencing resin permeation of a dry preform having one or more reinforcement plies , comprising: applying a selectively permeable veil to at least one of the reinforcement plies of the dry preform , the selectively permeable veil having a veil pattern of a predetermined spatial density and being adapted to dissolve or melt into resin to at least locally impart toughness to the preform upon resin infusion and curing of the dry preform; infusing resin into the dry preform; and directing the resin through the selectively permeable veil such that the resin impregnates the dry preform; wherein the selectively permeable veil is selectively non-homogeneously permeable by forming the selectively permeable veil with veil pattern having a locally varying spatial density to achieve a change in permeability or porosity of the veil . applying a selectively permeable veil to at least one of the reinforcement plies of the dry preform , the selectively permeable veil having a veil pattern of a predetermined spatial density and being adapted to dissolve or melt into resin to at least locally impart toughness to the preform upon resin infusion and curing of the dry preform; infusing resin into the dry preform; and directing the resin through the selectively permeable veil such that the resin impregnates the dry preform; wherein the selectively permeable veil is selectively non-homogeneously permeable by forming the selectively permeable veil with veil pattern having a locally varying spatial density to achieve a change in permeability or porosity of the veil .
A wet scrubber for removal of at least one gaseous pollutant from an effluent gas comprising an inlet opening , a wet scrubber housing , which is fluidly connected to the inlet opening and through which housing the effluent gas is to flow in a scrubber gas flow direction (SD), and an absorption liquid supply device adapted to supply an absorption liquid into said wet scrubber housing for contact of effluent gas with the absorption liquid inside of the wet scrubber housing , wherein a gas distributor arranged in the wet scrubber housing , the gas distributor comprising a diffuser having a cover plate arranged in the path of the effluent gas flowing into the wet scrubber housing via the inlet opening , characterized in the diffuser further having an inlet throat connected to the inlet opening with a first portion having a constant circumference and a second portion being fluidly connected to the first portion , the second portion having an increasing horizontal cross-sectional area as one moves in a direction away from first portion and a smooth inner curvature that connects the first portion with a lower plate encircling the second portion , the diffuser further having side walls extending from the inner diameter of first portion to the outer diameter of the lower plate of the second portion and from the lower plate to the cover plate defining diffuser channels for transporting the effluent gas from the inlet opening into the wet scrubber housing .
A photopolymerizable emissive compound of general formula (I): wherein X and Y each independently represent an aryl or heteroaryl; preferably, a phenyl group; A and B simultaneously represent a - CHMe - group; L 1 and L 2 each independently represent an alkyl group comprising 1 to 10 carbon atoms, linear or branched, that may be interrupted by one or several atoms -O-, - N- or -S-; said group being optionally substituted with at least one alkyl, alkene, alkyne, oxo, amine, amide, cyano, hydroxyl, carboxy group; preferably, L 1 and L 2 each independently represent an alkyl group comprising 3 to 10 carbon atoms, linear or branched, that may be interrupted by one or several atoms -O-, -N- or -S-; said group being optionally substituted with at least one alkyl, alkene, alkyne, oxo, amine, amide, cyano, hydroxyl, carboxy group; more preferably, L 1 and L 2 simultaneously represent an alkyl chain interrupted by at least one oxygen atom and substituted with at least one oxo group; T 1 and T 2 each independently represent a photopolymerizable group selected from at least one acryloyl, alkylacryloyl, oxetane, alkyloxetane, styryl, allyl, acrylamide, methacrylamide or cinnamate; preferably, T 1 and T 2 simultaneously represent an acryloyl group or an alkyloxetane group; Z represents an electron-withdrawing group; preferably, Z represents an aldehyde, dicyanovinylidene, cyanovinylidene, benzothiadiazole group or an alkyl ester group comprising at least one photopolymerizable group selected from at least one acryloyl, alkylacryloyl, oxetane, alkyloxetane, styryl, allyl, acrylamide, methacrylamide or cinnamate. wherein X and Y each independently represent an aryl or heteroaryl; preferably, a phenyl group; A and B simultaneously represent a - CHMe - group; L 1 and L 2 each independently represent an alkyl group comprising 1 to 10 carbon atoms, linear or branched, that may be interrupted by one or several atoms -O-, - N- or -S-; said group being optionally substituted with at least one alkyl, alkene, alkyne, oxo, amine, amide, cyano, hydroxyl, carboxy group; preferably, L 1 and L 2 each independently represent an alkyl group comprising 3 to 10 carbon atoms, linear or branched, that may be interrupted by one or several atoms -O-, -N- or -S-; said group being optionally substituted with at least one alkyl, alkene, alkyne, oxo, amine, amide, cyano, hydroxyl, carboxy group; more preferably, L 1 and L 2 simultaneously represent an alkyl chain interrupted by at least one oxygen atom and substituted with at least one oxo group; T 1 and T 2 each independently represent a photopolymerizable group selected from at least one acryloyl, alkylacryloyl, oxetane, alkyloxetane, styryl, allyl, acrylamide, methacrylamide or cinnamate; preferably, T 1 and T 2 simultaneously represent an acryloyl group or an alkyloxetane group; Z represents an electron-withdrawing group; preferably, Z represents an aldehyde, dicyanovinylidene, cyanovinylidene, benzothiadiazole group or an alkyl ester group comprising at least one photopolymerizable group selected from at least one acryloyl, alkylacryloyl, oxetane, alkyloxetane, styryl, allyl, acrylamide, methacrylamide or cinnamate.
A suction cup for removably fastening to a substrate , wherein the suction cup comprises a resilient sealing material for applying to the substrate and an elastically deformable actuating portion for pressing against the substrate , and utilizes an elastic recovery of the actuating portion in order to generate a negative pressure between the suction cup and the substrate , characterized in that the actuating portion comprises a snap dome , whose front or visible side facing away from the sealing material is at least partially convexly curved in a stable rest state, which can be at least partially deformed by a compressive force exerted onto the front or visible side into a metastable or unstable deformation state, where its front or visible side is at least partially concavely curved, and which recovers automatically in the direction of the rest state when the compressive force is relieved.
Method for determining a capacitance value (C E ') of an earthing capacitor (C E ) of an unearthed power supply , in which method, in order to monitor an insulating resistor (R E ) of the power supply , a periodic voltage having a variable period duration (T) which is dependent on the earthing capacitor (C E ) is superimposed onto the power supply with the aid of an insulation monitoring device , characterised in that a measurement capacitor (C M ) having a known capacitance value (C M ') is electrically connected to the power supply and the capacitance value (C E ') of the earthing capacitor (C E ) is determined on the basis of a change in the period duration (T), which occurs as a result of the connection of the measurement capacitor (C M ), or a variable (~T) over time which is proportional thereto.
A steel fuel conveying pipe for conveying gasoline, comprising a Ni-plated layer with a thickness of 1 to 15 μm provided on the whole inner circumferential face of the fuel conveying pipe, and an anti-rust film layer composed of a Zn-plated layer or a Zn-based alloy-plated layer further provided on the Ni-plated layer at least at one end of the fuel conveying pipe, the anti-rust film layer being formed with a thickness in a range of 0.1 to 8 μm, characterized in that when an inner diameter of the fuel conveying pipe is D mm, the anti-rust film layer composed of the Zn-plated layer or the Zn-based alloy-plated layer is provided up to a position of D to 6D mm from the end of the fuel conveying pipe inward, and a portion or the whole of an outer surface of the fuel conveying pipe is covered with a Zn-plated layer or a Zn-based alloy-plated layer.
A method for controlling massage units (2-1 to 2-n) of a massage apparatus arranged in a seat in a vehicle for massaging an occupant, comprising the steps of: controlling (S2) massage units (2-1 to 2-n) integrated in the seat based on an audio entertainment signal ; and altering (S4) an intensity of the massage provided by the massage units (2-1 to 2-n) based on the entertainment signal , adapted to current operating information of the vehicle , which indicates the occurrence of a potentially mentally demanding or fatigue-promoting situation for a vehicle driver. controlling (S2) massage units (2-1 to 2-n) integrated in the seat based on an audio entertainment signal ; and altering (S4) an intensity of the massage provided by the massage units (2-1 to 2-n) based on the entertainment signal , adapted to current operating information of the vehicle , which indicates the occurrence of a potentially mentally demanding or fatigue-promoting situation for a vehicle driver.
A method for a user equipment, UE, performing a random access procedure, the method comprising: transmitting a first random access preamble; receiving a message including a backoff indicator, BI, and one or more backoff offset, BO, values; the method further comprising, when a random access using the first first random access preamble fails, selecting a backoff time based on the BI and a BO value; and transmitting a second random access preamble after the selected backoff time, wherein the message does not include the first random access preamble, wherein the BO value is selected among the one or more BO values based on an event that triggers the random access procedure, and wherein the backoff time is selected based on a uniform distribution between the BI and the BO value. transmitting a first random access preamble; receiving a message including a backoff indicator, BI, and one or more backoff offset, BO, values; the method further comprising, when a random access using the first first random access preamble fails, selecting a backoff time based on the BI and a BO value; and transmitting a second random access preamble after the selected backoff time, wherein the message does not include the first random access preamble, wherein the BO value is selected among the one or more BO values based on an event that triggers the random access procedure, and wherein the backoff time is selected based on a uniform distribution between the BI and the BO value.
Motor vehicle presenting a median longitudinal axis (A), parallel to the straight direction of travel, and comprising: - a plurality of wheels ; - a bodywork defining the external contour of the motor vehicle and having two opposite sidewalls defining a respective wheel compartment for each wheel , bounded by a respective wheel arch ; and - for each wheel compartment , a wheel arch trim disposed at the respective wheel arch ; characterized in that each wheel arch trim comprises: - a first arch-shaped portion disposed within the volume defined by said bodywork , facing, at least in part and from inside the bodywork itself, the respective wheel arch and attached to a structural part of said motor vehicle , internal with respect to said bodywork ; - a second arch-shaped portion protruding externally from said bodywork relative to said wheel arch ; and - an airflow channeling formed at least partially on said second arch-shaped portion to create an air blade tangent to the outer sidewall of the respective wheel and to the area of the respective sidewall adjacent to the respective wheel arch . - a plurality of wheels ; - a bodywork defining the external contour of the motor vehicle and having two opposite sidewalls defining a respective wheel compartment for each wheel , bounded by a respective wheel arch ; and - for each wheel compartment , a wheel arch trim disposed at the respective wheel arch ; - a first arch-shaped portion disposed within the volume defined by said bodywork , facing, at least in part and from inside the bodywork itself, the respective wheel arch and attached to a structural part of said motor vehicle , internal with respect to said bodywork ; - a second arch-shaped portion protruding externally from said bodywork relative to said wheel arch ; and - an airflow channeling formed at least partially on said second arch-shaped portion to create an air blade tangent to the outer sidewall of the respective wheel and to the area of the respective sidewall adjacent to the respective wheel arch .
A fastening element for fastening loads to a support profile of a drywall construction , which is provided with panelling at least on one side, the fastening element comprising an L-shaped bracket joint having at least one first leg and one second leg , - the first leg having a receptacle for a first connecting means for connecting the load to the fastening element and a first stop surface of the first leg forming a stop for the panelling , - the second leg having at least one opening for accommodating at least one second connecting means for connecting the fastening element to the support profile , a second stop surface of the second leg forming a stop for the support profile , - and a section of the first leg being bent out of a plane of the first stop surface so that this section forms a supporting projection of the first leg , a bearing surface of the supporting projection enclosing a first angle α with the first stop surface , which first angle α lies between 60° and 120° and is preferably 90°, characterized in that the receptacle is arranged flush with an anchor , which anchor is provided in or on an anchoring section , which protrudes from the second leg , preferably at right angles, and is used to anchor the first connecting means in the fastening element . - the first leg having a receptacle for a first connecting means for connecting the load to the fastening element and a first stop surface of the first leg forming a stop for the panelling , - the second leg having at least one opening for accommodating at least one second connecting means for connecting the fastening element to the support profile , a second stop surface of the second leg forming a stop for the support profile , - and a section of the first leg being bent out of a plane of the first stop surface so that this section forms a supporting projection of the first leg , a bearing surface of the supporting projection enclosing a first angle α with the first stop surface , which first angle α lies between 60° and 120° and is preferably 90°,
A flexible circuit configured to be formed into a non-planar configuration for use with a catheter tip , comprising: a first segment comprising a base section, the first segment configured to be formed into a distal-most portion of the non-planar configuration; a second segment comprising a lateral wall section, the second segment configured to be formed into a lateral surface of the non-planar configuration; a transition section between the base and lateral wall sections, the transition section being at least partially positioned adjacent a shared region of the base and lateral wall sections; and one or more electrode regions, each electrode region comprising a respective electrode , characterized in that the respective electrodes of the one or more electrode regions are being positioned at least partially in the transition section and the second segment . a first segment comprising a base section, the first segment configured to be formed into a distal-most portion of the non-planar configuration; a second segment comprising a lateral wall section, the second segment configured to be formed into a lateral surface of the non-planar configuration; a transition section between the base and lateral wall sections, the transition section being at least partially positioned adjacent a shared region of the base and lateral wall sections; and one or more electrode regions, each electrode region comprising a respective electrode , characterized in that the respective electrodes of the one or more electrode regions are being positioned at least partially in the transition section and the second segment .
A method of preparing a personalized blood vessel comprising, contacting a surface of an acellular tubular scaffold with an undiluted whole blood sample from a subject in need of the personalized blood vessel, wherein the contacting is performed for 3 days to 14 days.
A tire comprising: a carcass extending toroidally between a pair of bead portions ; a belt layer provided on a tire radial outer side of a crown portion of the carcass ; and a belt reinforcement layer provided on the tire radial outer side of the belt layer , wherein the tire comprises an organic fiber cord coated with an adhesive composition that includes polyphenols and aldehydes, when a tire widthwise region centered on a tire equatorial plane (CL) and having a width in a tire width direction of 2/3 of the length between ground contact edges (E) is a center region (R1), and tire widthwise regions between the ground contact edges (E) and tire widthwise outer sides of the center region are shoulder regions (R2), a first tensile elastic modulus (E1) of the belt reinforcement layer in the center region is smaller than a second tensile elastic modulus (E2) of the belt reinforcement layer in the shoulder regions, and a ratio of the first tensile elastic modulus (E1) to the second tensile elastic modulus (E2) is between 1/1.5 and 1/5.0. a carcass extending toroidally between a pair of bead portions ; a belt layer provided on a tire radial outer side of a crown portion of the carcass ; and a belt reinforcement layer provided on the tire radial outer side of the belt layer , wherein the tire comprises an organic fiber cord coated with an adhesive composition that includes polyphenols and aldehydes, when a tire widthwise region centered on a tire equatorial plane (CL) and having a width in a tire width direction of 2/3 of the length between ground contact edges (E) is a center region (R1), and tire widthwise regions between the ground contact edges (E) and tire widthwise outer sides of the center region are shoulder regions (R2), a first tensile elastic modulus (E1) of the belt reinforcement layer in the center region is smaller than a second tensile elastic modulus (E2) of the belt reinforcement layer in the shoulder regions, and a ratio of the first tensile elastic modulus (E1) to the second tensile elastic modulus (E2) is between 1/1.5 and 1/5.0.
A method for pre-analytical processing of a biological sample for analysis, the method comprising: providing to an automated system for pre-processing a primary biological sample for analysis, a rack carrying a plurality of sample containers wherein each of the sample containers in the rack is one of at least a first type of container or a second type of container, each sample container carrying a biological sample therein; interrogating a label on the rack for information about at least one of the rack type, the one or more types of sample containers carried by the rack or both; characterized by communicating the rack label information to a processor that, based on the rack label information type or the type of sample containers carried by the rack , assigns a processing order for the pre-analytical processing to the rack for the samples in the containers disposed in the rack . providing to an automated system for pre-processing a primary biological sample for analysis, a rack carrying a plurality of sample containers wherein each of the sample containers in the rack is one of at least a first type of container or a second type of container, each sample container carrying a biological sample therein; interrogating a label on the rack for information about at least one of the rack type, the one or more types of sample containers carried by the rack or both; characterized by communicating the rack label information to a processor that, based on the rack label information type or the type of sample containers carried by the rack , assigns a processing order for the pre-analytical processing to the rack for the samples in the containers disposed in the rack .
An additive manufacturing technology, AMT, method for fabricating a bowtie slot antenna, the method comprising: (a) milling copper from a first surface of a double clad dielectric substrate to form an aperture ; (b) milling copper from a second, opposite surface of the double clad dielectric substrate to form a feed line for the aperture ; (c) bonding the double clad dielectric substrate on its second surface to a first surface of a second substrate having a ground plane conductor disposed over a second surface thereof to form a bonded assembly; (d) milling the bonded assembly to form at least one opening for a Faraday wall proximate the aperture ; wherein during the milling operation to form the at least one opening for the Faraday wall, the substrate and bond materials are removed but the ground plane conductor is left intact, and wherein the milling operation to form the at least one opening for the Faraday wall is performed on the same side of the bonding assembly on which the aperture conductor is disposed; and (e) filling the at least one opening with a conductive liquid to form the Faraday wall. (a) milling copper from a first surface of a double clad dielectric substrate to form an aperture ; (b) milling copper from a second, opposite surface of the double clad dielectric substrate to form a feed line for the aperture ; (c) bonding the double clad dielectric substrate on its second surface to a first surface of a second substrate having a ground plane conductor disposed over a second surface thereof to form a bonded assembly; (d) milling the bonded assembly to form at least one opening for a Faraday wall proximate the aperture ; wherein during the milling operation to form the at least one opening for the Faraday wall, the substrate and bond materials are removed but the ground plane conductor is left intact, and wherein the milling operation to form the at least one opening for the Faraday wall is performed on the same side of the bonding assembly on which the aperture conductor is disposed; and (e) filling the at least one opening with a conductive liquid to form the Faraday wall.