mhurhangee/patent-ind-claim-en huggingface dataset:
Digital printing device , comprising: a fixed frame ; a support portion ; a plurality of printing modules that are integral with said support portion and equipped with at least one print head , whose nozzle plate faces, in use, a printing area (S) underlying the printing module ; wherein said digital printing device is arranged to print onto a printing medium that is relatively movable with respect to the fixed frame through said printing area (S) in an advancement direction (A); wherein said printing modules follow each other along a longitudinal direction (Y) that is parallel to said advancement direction (A); said digital printing device comprising a cleaning bar , extended in the longitudinal direction (Y), spanning below the plurality of said printing modules and translationally movable in a transverse horizontal direction (Z) that is orthogonal to the longitudinal direction (Y); said cleaning bar comprising a bar body that supports a plurality of cleaning heads , each of them being arranged to clean the nozzle plate of a specific printing module ; wherein said cleaning heads are supported in a floating manner by the bar body , so as to adapt their own height to the one of the overlying printing module . a fixed frame ; a support portion ; a plurality of printing modules that are integral with said support portion and equipped with at least one print head , whose nozzle plate faces, in use, a printing area (S) underlying the printing module ; wherein said digital printing device is arranged to print onto a printing medium that is relatively movable with respect to the fixed frame through said printing area (S) in an advancement direction (A); wherein said printing modules follow each other along a longitudinal direction (Y) that is parallel to said advancement direction (A); said digital printing device comprising a cleaning bar , extended in the longitudinal direction (Y), spanning below the plurality of said printing modules and translationally movable in a transverse horizontal direction (Z) that is orthogonal to the longitudinal direction (Y); said cleaning bar comprising a bar body that supports a plurality of cleaning heads , each of them being arranged to clean the nozzle plate of a specific printing module ; wherein said cleaning heads are supported in a floating manner by the bar body , so as to adapt their own height to the one of the overlying printing module .
A method comprising: receiving a packet at a virtual router , the virtual router executing in kernel space of a first computing device in a virtual network stack connected to a virtual network fabric, the packet including a source address and a destination address, the destination address indicating a virtual machine executing on a second computing device ; forwarding the packet from the virtual router to a host operating system, OS, networking stack associated with a host OS operating on the first computing device , wherein the host OS networking stack includes an encryption module that executes in kernel space on the first computing device , wherein the host OS networking stack is connected to a switch fabric operating as an underlay fabric for the virtual network fabric, wherein the switch fabric comprises a plurality of switches interconnected to form a physical network; receiving the forwarded packet at the encryption module and encrypting the forwarded packet to form an encapsulated packet that preserves the source and destination addresses; returning, by the encryption module, the encapsulated packet to the virtual router ; and transmitting the encapsulated packet from the virtual router to the virtual machine indicated by the destination address via the switch fabric . receiving a packet at a virtual router , the virtual router executing in kernel space of a first computing device in a virtual network stack connected to a virtual network fabric, the packet including a source address and a destination address, the destination address indicating a virtual machine executing on a second computing device ; forwarding the packet from the virtual router to a host operating system, OS, networking stack associated with a host OS operating on the first computing device , wherein the host OS networking stack includes an encryption module that executes in kernel space on the first computing device , wherein the host OS networking stack is connected to a switch fabric operating as an underlay fabric for the virtual network fabric, wherein the switch fabric comprises a plurality of switches interconnected to form a physical network; receiving the forwarded packet at the encryption module and encrypting the forwarded packet to form an encapsulated packet that preserves the source and destination addresses; returning, by the encryption module, the encapsulated packet to the virtual router ; and transmitting the encapsulated packet from the virtual router to the virtual machine indicated by the destination address via the switch fabric .
A hydraulic system for a hybrid electrical vehicle comprising: a sump containing hydraulic fluid; a main regulator valve constructed and arranged in flow communication with said sump ; a main regulator by-pass valve constructed and arranged in flow communication with said sump ; first and second control solenoids wherein said first control solenoid is a variable bleed solenoid; characterized in that the hydraulic system further comprises a control module, wherein said control module is constructed and arranged for multiplexing of said variable bleed solenoid , wherein said multiplexing is applied for said variable bleed solenoid to either hold the main regulator by-pass valve at an applied position or make the variable bleed solenoid available for main modulation boost. a sump containing hydraulic fluid; a main regulator valve constructed and arranged in flow communication with said sump ; a main regulator by-pass valve constructed and arranged in flow communication with said sump ; first and second control solenoids wherein said first control solenoid is a variable bleed solenoid; characterized in that the hydraulic system further comprises a control module, wherein said control module is constructed and arranged for multiplexing of said variable bleed solenoid , wherein said multiplexing is applied for said variable bleed solenoid to either hold the main regulator by-pass valve at an applied position or make the variable bleed solenoid available for main modulation boost.
Agitator device, in particular axially conveying agitator device, for stirring, mixing, homogenizing, dispersing and/or suspending, in particular abrasive media, with at least one stirring blade which is configured to rotate around a rotary axis , and with a contour unit which is configured for a wear-down reduction of the at least one stirring blade (10, which is realized as a geometric unit and/or a geometric shaping of the at least one stirring blade and which is arranged and/or fastened on and/or at least partially in contact with at least one surface and/or at least one portion of the at least one stirring blade , the contour unit and/or at least one element of the contour unit being arranged in an abrasion-prone place, wherein the contour unit comprises at least one contour curvature element which is formed by a curved portion of the at least one stirring blade and has a smaller bending radius than at least one stirring blade curvature of the at least one stirring blade (10, characterised in that the at least one contour curvature element has a bending axis including, in a viewing direction along the rotary axis , an angle γ between 15° and 75° with a stirring blade front edge of the at least one stirring blade , subsequently to the stirring blade front edge in a rotary direction of the at least one stirring blade . with at least one stirring blade which is configured to rotate around a rotary axis , and with a contour unit which is configured for a wear-down reduction of the at least one stirring blade (10, which is realized as a geometric unit and/or a geometric shaping of the at least one stirring blade and which is arranged and/or fastened on and/or at least partially in contact with at least one surface and/or at least one portion of the at least one stirring blade , the contour unit and/or at least one element of the contour unit being arranged in an abrasion-prone place, wherein the contour unit comprises at least one contour curvature element which is formed by a curved portion of the at least one stirring blade and has a smaller bending radius than at least one stirring blade curvature of the at least one stirring blade (10, characterised in that the at least one contour curvature element has a bending axis including, in a viewing direction along the rotary axis , an angle γ between 15° and 75° with a stirring blade front edge of the at least one stirring blade , subsequently to the stirring blade front edge in a rotary direction of the at least one stirring blade .
[Multilayer insulation film comprising a central body formed by at least one polyethylene bubble film layer , characterized in that said multilayer insulation film comprises two outer layers of metalized polyethylene which extend one on either side of the central body and which are complexed to the central body , each outer layer has a thickness of between 10 μm and 40 μm and an elongation at break of greater than 100% in two mutually perpendicular directions, measured in accordance with the ASTM Standard D882.
A method of detecting a need for regeneration of an exhaust particulate filter , comprising the steps of: (a) detecting a first pressure drop (Δp 1 ) in a flow section of an exhaust system comprising the exhaust particulate filter , the flow section being connected to the exhaust particulate filter in a fluidically unbranched manner, and an SCR catalytic converter and/or an oxidation catalytic converter being arranged in the flow section , the flow section being positioned downstream of the exhaust particulate filter , and wherein the first pressure drop (Δp 1 ) is determined across the SCR catalytic converter and/or the oxidation catalytic converter ; (b) sensing an exhaust gas temperature (T 1 , T 2 ); (c) calculating an exhaust gas mass flow flowing through the exhaust particulate filter on the basis of the first pressure drop (Δp 1 ) and the exhaust gas temperature (T 1 , T 2 ); (d) determining a second pressure drop (Δp 2 ) across the exhaust particulate filter ; (e) identifying the need for regeneration when the second pressure drop (Δp 2 ) exceeds a predefined pressure limit value (p G ) dependent on the exhaust gas mass flow . (a) detecting a first pressure drop (Δp 1 ) in a flow section of an exhaust system comprising the exhaust particulate filter , the flow section being connected to the exhaust particulate filter in a fluidically unbranched manner, and an SCR catalytic converter and/or an oxidation catalytic converter being arranged in the flow section , the flow section being positioned downstream of the exhaust particulate filter , and wherein the first pressure drop (Δp 1 ) is determined across the SCR catalytic converter and/or the oxidation catalytic converter ; (b) sensing an exhaust gas temperature (T 1 , T 2 ); (c) calculating an exhaust gas mass flow flowing through the exhaust particulate filter on the basis of the first pressure drop (Δp 1 ) and the exhaust gas temperature (T 1 , T 2 ); (d) determining a second pressure drop (Δp 2 ) across the exhaust particulate filter ; (e) identifying the need for regeneration when the second pressure drop (Δp 2 ) exceeds a predefined pressure limit value (p G ) dependent on the exhaust gas mass flow .
A hearing assistance device , comprising: a housing ; wherein the housing contains components that include a microphone for converting an audio input into an input signal, a digital processing circuitry for processing the input signal, an output stage to produce an output signal in a manner that compensates for the patient's hearing deficit, and a wireless transceiver connected to the digital processing circuitry ; a bowtie-type antenna having a feedpoint connected to the wireless transceiver ; characterised in that the bowtie-type antenna is formed by two lateral half-sections of the housing made of conductive material and separated by a dielectric material and configured to radiate with linear polarization such that the electric field is perpendicular to the head of the user in use, and wherein the feedpoint is located at a top of the housing Z in use a housing ; wherein the housing contains components that include a microphone for converting an audio input into an input signal, a digital processing circuitry for processing the input signal, an output stage to produce an output signal in a manner that compensates for the patient's hearing deficit, and a wireless transceiver connected to the digital processing circuitry ; a bowtie-type antenna having a feedpoint connected to the wireless transceiver ; characterised in that the bowtie-type antenna is formed by two lateral half-sections of the housing made of conductive material and separated by a dielectric material and configured to radiate with linear polarization such that the electric field is perpendicular to the head of the user in use, and wherein the feedpoint is located at a top of the housing Z in use
A Factor Xa (FXa) variant for use in the treatment of intracerebral haemorrhage (ICH), wherein Factor Xa (FXa) variant includes at least one substitution mutation selected from the group consisting of: a) the amino acid at the position corresponding to 235 in SEQ ID NO:1 is substituted with Thr, Leu, Phe, Asp or Gly; and b) the amino acid at the position corresponding to 236 in SEQ ID NO:1 is substituted with Leu, Ala, or Gly. a) the amino acid at the position corresponding to 235 in SEQ ID NO:1 is substituted with Thr, Leu, Phe, Asp or Gly; and b) the amino acid at the position corresponding to 236 in SEQ ID NO:1 is substituted with Leu, Ala, or Gly.
A device for unloading waste into a container of a waste disposal facility, said waste disposal facility comprising an access platform for vehicles and trailers and at least one recess intended to receive said container, the device comprising - a horizontal plate arranged in the same plane as the platform, above said container , and comprising - a static frame and - a hopper which is intended to receive the contents of the vehicle and/or of the trailer and is movable relative to said fixed frame, said device being characterized in that said hopper comprises two pivoting flaps, namely a front flap (28-1) and rear flap (28-2), the joint plane being parallel to the edge of the platform and the front flap (28-1) being closest to the edge of the platform, said hopper comprising means for maneuvering the flaps, said maneuvering means being electrical jacks , said hopper comprises U-shaped slides which are arranged on each side of the static frame and are intended to receive two shafts, namely a proximal shaft and distal shaft , which are secured to each of the flaps and to each side, i.e. four axes per flap, and in that said device comprises, on the three rear and lateral sides, peripheral, closed guardrails (40-1 to 40-3) that are secured to the static frame and around the hopper, said guardrails being double-walled and housing the slides and the jacks . - a horizontal plate arranged in the same plane as the platform, above said container , and comprising - a static frame and - a hopper which is intended to receive the contents of the vehicle and/or of the trailer and is movable relative to said fixed frame, said device being characterized in that said hopper comprises two pivoting flaps, namely a front flap (28-1) and rear flap (28-2), the joint plane being parallel to the edge of the platform and the front flap (28-1) being closest to the edge of the platform, said hopper comprising means for maneuvering the flaps, said maneuvering means being electrical jacks , said hopper comprises U-shaped slides which are arranged on each side of the static frame and are intended to receive two shafts, namely a proximal shaft and distal shaft , which are secured to each of the flaps and to each side, i.e. four axes per flap, and in that said device comprises, on the three rear and lateral sides, peripheral, closed guardrails (40-1 to 40-3) that are secured to the static frame and around the hopper, said guardrails being double-walled and housing the slides and the jacks .
A computer-implemented method of dynamically detecting dangerous merging situations, the method comprising: obtaining speed information for one or more road segments, wherein the speed information comprises lane-level traffic speed information, based on the speed information, determining a source speed of a source lane and a target speed of a target lane ; determining a dangerous merging situation value based on a comparison of the source speed and the target speed, determining that a merging instance from the source lane into the target lane would be a dangerous merging situation based on the dangerous merging situation value; performing the preceding steps repeatedly over the entirety of one or more routes to a destination to determine respective one or more merging indicators, wherein each merging indicator is an aggregate of a plurality of dangerous merging situation values calculated along a respective route; altering a projected route to the destination to a best route to the destination, wherein the best route is determined based on a travel time and the merging indicator for each of the one or more routes; and providing a signal based on the determination of at least one dangerous merging situation, wherein the signal is configured to cause one of the route of an autonomous vehicle to be altered to the altered projected route without driver interaction and a message including the altered projected route to be communicated to a driver of a vehicle . obtaining speed information for one or more road segments, wherein the speed information comprises lane-level traffic speed information, based on the speed information, determining a source speed of a source lane and a target speed of a target lane ; determining a dangerous merging situation value based on a comparison of the source speed and the target speed, determining that a merging instance from the source lane into the target lane would be a dangerous merging situation based on the dangerous merging situation value; performing the preceding steps repeatedly over the entirety of one or more routes to a destination to determine respective one or more merging indicators, wherein each merging indicator is an aggregate of a plurality of dangerous merging situation values calculated along a respective route; altering a projected route to the destination to a best route to the destination, wherein the best route is determined based on a travel time and the merging indicator for each of the one or more routes; and providing a signal based on the determination of at least one dangerous merging situation, wherein the signal is configured to cause one of the route of an autonomous vehicle to be altered to the altered projected route without driver interaction and a message including the altered projected route to be communicated to a driver of a vehicle .
Method for producing a neutron detector component comprising a neutron detecting boron carbide layer comprising boron-10 arranged on a substantially neutron transparent substrate , the method comprising: - placing the substantially neutron transparent substrate and at least one source of coating material comprising carbon and boron-10 inside a coating chamber ; - evacuating the coating chamber to a pressure that is at most 6 mPa and heating at least a coating surface of the substantially neutron transparent substrate in the coating chamber to an elevated temperature that is at least 300°C to 660°C; - starting to coat the neutron detecting boron carbide layer comprising boron-10 on the substantially neutron transparent substrate by means of physical vapor deposition in the form of magnetron sputtering using the at least one source of coating material when said pressure and said elevated temperature are reached; and - coating the neutron detecting boron carbide layer comprising boron-10 to a desired thickness (t), wherein the boron content ranges between 70 at.% and 84 at.% of the total number of boron and carbon atoms in the boron carbide layer , disregarding impurities, and the rest being carbon atoms, and wherein the boron-10 content of the neutron detecting boron carbide layer is at least 60 at.% of the boron atoms in the boron carbide layer . - placing the substantially neutron transparent substrate and at least one source of coating material comprising carbon and boron-10 inside a coating chamber ; - evacuating the coating chamber to a pressure that is at most 6 mPa and heating at least a coating surface of the substantially neutron transparent substrate in the coating chamber to an elevated temperature that is at least 300°C to 660°C; - starting to coat the neutron detecting boron carbide layer comprising boron-10 on the substantially neutron transparent substrate by means of physical vapor deposition in the form of magnetron sputtering using the at least one source of coating material when said pressure and said elevated temperature are reached; and - coating the neutron detecting boron carbide layer comprising boron-10 to a desired thickness (t), wherein the boron content ranges between 70 at.% and 84 at.% of the total number of boron and carbon atoms in the boron carbide layer , disregarding impurities, and the rest being carbon atoms, and wherein the boron-10 content of the neutron detecting boron carbide layer is at least 60 at.% of the boron atoms in the boron carbide layer .
An encapsulant film comprising a crosslinked polymeric composition, the composition comprising: (A) from 95 wt% to 98.75 wt% of a non-polar ethylene-based polymer based on the total weight of the composition; (B) from 0.75 wt% to 1.5 wt% of an organic peroxide based on the total weight of the composition; (C) from 0.1 wt% to 0.3 wt% of a silane coupling agent based on the total weight of the composition; and (D) from 0.4 wt% to 0.7 wt% based on the total weight of the composition of a single co-agent of a compound of Structure I wherein R 1 -R 6 each is independently selected from the group consisting of a C 1 -C 8 hydrocarbyl group, a C 1 -C 36 substituted hydrocarbyl group, and combinations thereof and wherein the encapsulant film has a volume resistivity from greater than or equal to 3.0*10 15 ohm.cm to 3.0*10 18 ohm.cm at 60°C, determined according to the method disclosed in the description. (A) from 95 wt% to 98.75 wt% of a non-polar ethylene-based polymer based on the total weight of the composition; (B) from 0.75 wt% to 1.5 wt% of an organic peroxide based on the total weight of the composition; (C) from 0.1 wt% to 0.3 wt% of a silane coupling agent based on the total weight of the composition; and (D) from 0.4 wt% to 0.7 wt% based on the total weight of the composition of a single co-agent of a compound of Structure I