mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic resin composition, comprising: 3 to 22 % by weight of a graft copolymer (A-1) comprising an acrylate-based rubber having an average particle diameter of 200 to 400 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 17 to 40 % by weight of a graft copolymer (A-2) comprising an acrylate-based rubber having an average particle diameter of 50 to 199 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 30 to 57 % by weight of a copolymer (B) comprising a (meth)acrylic acid alkyl ester compound, an α-methyl styrene-based compound, and a vinyl cyanide compound, wherein the copolymer (B) comprises 30 to 55 % by weight of the (meth)acrylic acid alkyl ester compound, 25 to 50 % by weight of the α-methyl styrene-based compound, and 10 to 30 % by weight of the vinyl cyanide compound; and 6 to 30 % by weight of a polymethacrylate resin (C) (not containing α-methyl styrene), wherein the polymethacrylate resin (C) (not containing α-methyl styrene) is a methyl methacrylate-styrene-acrylonitrile copolymer, or a mixture of a methyl methacrylate-styrene-acrylonitrile copolymer and a polymethyl methacrylate resin; wherein the average multi-axial impact strength, which is obtained by measuring a maximum load energy 10 times at a speed of 4.4 m/s according to ISO 6603-2, of a specimen having a thickness of 2.0 mm is 22 J/mm or more, and a standard deviation thereof is 6.5 or less, wherein the average particle diameter is measured as disclosed in the specification. 3 to 22 % by weight of a graft copolymer (A-1) comprising an acrylate-based rubber having an average particle diameter of 200 to 400 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 17 to 40 % by weight of a graft copolymer (A-2) comprising an acrylate-based rubber having an average particle diameter of 50 to 199 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 30 to 57 % by weight of a copolymer (B) comprising a (meth)acrylic acid alkyl ester compound, an α-methyl styrene-based compound, and a vinyl cyanide compound, wherein the copolymer (B) comprises 30 to 55 % by weight of the (meth)acrylic acid alkyl ester compound, 25 to 50 % by weight of the α-methyl styrene-based compound, and 10 to 30 % by weight of the vinyl cyanide compound; and 6 to 30 % by weight of a polymethacrylate resin (C) (not containing α-methyl styrene), wherein the polymethacrylate resin (C) (not containing α-methyl styrene) is a methyl methacrylate-styrene-acrylonitrile copolymer, or a mixture of a methyl methacrylate-styrene-acrylonitrile copolymer and a polymethyl methacrylate resin; wherein the average multi-axial impact strength, which is obtained by measuring a maximum load energy 10 times at a speed of 4.4 m/s according to ISO 6603-2, of a specimen having a thickness of 2.0 mm is 22 J/mm or more, and a standard deviation thereof is 6.5 or less, wherein the average particle diameter is measured as disclosed in the specification.
A silencer unit for a heat recovery ventilation (HRV) unit for providing supply air, preferably outside air (fresh air), to an apartment or parts thereof and for removing return air, preferably exhaust air (used air), from said apartment or parts thereof, the heat recovery ventilation unit comprising: a supply air outlet for establishing supply air flow communication with said apartment; a return air inlet for establishing return air flow communication with said apartment; an exhaust air outlet for establishing exhaust air flow communication with the atmosphere; an outside air inlet for establishing outside air flow communication with the atmosphere, wherein the silencer unit is to be connected to air inlets and air outlets of the heat recovery ventilation unit, wherein the silencer unit comprises a silencer duct for the supply air outlet of the HRV unit and a silencer duct for the return air inlet of the HRV unit which silencer ducts are both curved ducts each comprising at least one bend , characterized in that the silencer unit comprises separate silencer ducts to be connected to said supply air outlet, return air inlet, exhaust air outlet and outside air inlet, respectively, of the heat recovery ventilation unit. a supply air outlet for establishing supply air flow communication with said apartment; a return air inlet for establishing return air flow communication with said apartment; an exhaust air outlet for establishing exhaust air flow communication with the atmosphere; an outside air inlet for establishing outside air flow communication with the atmosphere, wherein the silencer unit is to be connected to air inlets and air outlets of the heat recovery ventilation unit, wherein the silencer unit comprises a silencer duct for the supply air outlet of the HRV unit and a silencer duct for the return air inlet of the HRV unit which silencer ducts are both curved ducts each comprising at least one bend , characterized in that the silencer unit comprises separate silencer ducts to be connected to said supply air outlet, return air inlet, exhaust air outlet and outside air inlet, respectively, of the heat recovery ventilation unit.
Method for operating a power plant having a gas turbine , a heat recovery steam generator connected downstream of the gas turbine , a steam turbine connected to the heat recovery steam generator , and an auxiliary burner arranged in the heat recovery steam generator, wherein a target pressure value is set immediately upstream of the steam turbine , in order to achieve a predefined power plant capacity, characterized in that the target pressure value is a target value for the auxiliary burner.
A method for assisting a driver of a vehicle with passing through a roadway narrowing, in which a sensor unit detects a roadway narrowing in the direction of travel of the vehicle , and whether the vehicle has already reached the roadway narrowing, or whether the vehicle is already in the process of passing through the roadway narrowing, the roadway narrowing is categorized, wherein a first category is associated with a roadway narrowing if it includes only static boundaries , and a second category is associated if it includes dynamic boundaries , characterized in that a first graphical element for the roadway narrowing and, relative thereto, a second graphical element for the vehicle are displayed as the roadway narrowing is being approached and/or as the roadway narrowing is being passed through in order to assist the driver of the vehicle , wherein the type of depiction of the first and/or second graphical elements differs as a function of the category of the detected roadway narrowing, and the type of depiction furthermore differs as a function of whether the roadway narrowing has not yet been reached or whether the vehicle is already in the process of passing through the roadway narrowing. a sensor unit detects a roadway narrowing in the direction of travel of the vehicle , and whether the vehicle has already reached the roadway narrowing, or whether the vehicle is already in the process of passing through the roadway narrowing, the roadway narrowing is categorized, wherein a first category is associated with a roadway narrowing if it includes only static boundaries , and a second category is associated if it includes dynamic boundaries , characterized in that a first graphical element for the roadway narrowing and, relative thereto, a second graphical element for the vehicle are displayed as the roadway narrowing is being approached and/or as the roadway narrowing is being passed through in order to assist the driver of the vehicle , wherein the type of depiction of the first and/or second graphical elements differs as a function of the category of the detected roadway narrowing, and the type of depiction furthermore differs as a function of whether the roadway narrowing has not yet been reached or whether the vehicle is already in the process of passing through the roadway narrowing.
Fill level measurement device , comprising: a measurement electronics , configured to generate a transmission signal; a waveguide arrangement , which comprises a first waveguide section , a second waveguide section and a potential isolation arranged therebetween, for transmitting the transmission signal from the measurement electronics to an antenna of the fill level measurement device; wherein the potential isolation has a front section in form of an inner plastic tube with a first passage , and an adjoining rear section with a second passage , wherein between the front section and the rear section a stepped transition with a stop surface is located, which is directed in the direction of the measurement electronics and against which the end face of the second waveguide section abuts; wherein the first passage has a smaller cross-sectional area than the second passage ; wherein the second waveguide section is inserted with its outer periphery into the inner wall of the second passage so that the second waveguide section is held in the second passage ; characterized in that the first passage is conical; that the inner plastic tube of the front section of the potential isolation is completely or at least partially integrated in the wall of the waveguide arrangement; and that the first passage and the second passage are configured to allow the transmitted signal to pass through unimpeded or at least substantially unimpeded. a measurement electronics , configured to generate a transmission signal; a waveguide arrangement , which comprises a first waveguide section , a second waveguide section and a potential isolation arranged therebetween, for transmitting the transmission signal from the measurement electronics to an antenna of the fill level measurement device; wherein the potential isolation has a front section in form of an inner plastic tube with a first passage , and an adjoining rear section with a second passage , wherein between the front section and the rear section a stepped transition with a stop surface is located, which is directed in the direction of the measurement electronics and against which the end face of the second waveguide section abuts; wherein the first passage has a smaller cross-sectional area than the second passage ; wherein the second waveguide section is inserted with its outer periphery into the inner wall of the second passage so that the second waveguide section is held in the second passage ; characterized in that the first passage is conical; that the inner plastic tube of the front section of the potential isolation is completely or at least partially integrated in the wall of the waveguide arrangement; and that the first passage and the second passage are configured to allow the transmitted signal to pass through unimpeded or at least substantially unimpeded.
A sealing collar adapted for being mounted around a window frame mounted in an inclined roof of a building, said sealing collar comprising an inner portion having top, bottom and side members, where said inner portion has an inner edge and an outer edge opposite the inner edge, where said inner edge defines an opening when the sealing collar is in the mounted condition, and where said inner portion is adapted for surrounding a window frame by the inner edge, and an outer skirt portion attached to the outer edge of the inner portion, where said outer skirt portion is a waterproof membrane adapted for forming a waterproof transition to an underroof of the inclined roof, wherein shape and size of the opening substantially match shape and size of the window frame, when the sealing collar is in the mounted condition, characterized in that the top, bottom and side members of the inner portion are made from a substantially dimensionally stable material, so that the inner edges of the inner portion may be used as a guide for a drawing aid or cutting tool.
A supporting joint incorporating tie rods or struts, in form of rods, with spherical inserts, comprising: • a main body obtained by 3D printing having a lower face , working as interface for the connection to a constraint to the ground, and an upper face on which one or more hollow seats are formed, defined by a spherical wall belonging to said main body, and by an access opening ; • one or more spherical inserts , housed inside a respective hollow seat , each one having a spherical shape and two polar flat faces opposed and parallel to each other, cutting the spherical shape of the insert according to two parallel planes, by reducing the thickness thereof in a direction perpendicular to said planes, the spherical insert having an axial hole , with cylindrical shape and perpendicular to the two polar flat faces ; and • one or more tubular rods inserted in the axial hole of a respective spherical insert, wherein the access opening , for accessing the hollow seats , is near the apex of the edge positioned on the upper face , and is slightly greater than the distance between the two polar flat faces of the spherical insert , so that the spherical insert can be inserted inside the hollow seat and, once rotated by 90 degrees, the polar flat faces and the axial hole of the spherical insert face towards outside, and it is possible to insert the relevant tubular rod in the respective axial hole thereof. • a main body obtained by 3D printing having a lower face , working as interface for the connection to a constraint to the ground, and an upper face on which one or more hollow seats are formed, defined by a spherical wall belonging to said main body, and by an access opening ; • one or more spherical inserts , housed inside a respective hollow seat , each one having a spherical shape and two polar flat faces opposed and parallel to each other, cutting the spherical shape of the insert according to two parallel planes, by reducing the thickness thereof in a direction perpendicular to said planes, the spherical insert having an axial hole , with cylindrical shape and perpendicular to the two polar flat faces ; and • one or more tubular rods inserted in the axial hole of a respective spherical insert,
A clot removal device, comprising: a guide wire ; a distal filter mesh mounted on said guide wire and configured to be extended to cover the target clot , said distal filter mesh configured for deployment downstream from the target clot to substantially prevent downstream migration of clot elements; and a proximal filter mesh openable on the proximal side of the target clot configured to mitigate flow through of clot elements, characterized in that said clot removal device comprising one or more control wires and an expandable clot holding element configured for penetrating and expanding inside the target clot and stabilizing and securing the target clot in its position in a clot holding area defined between the proximal filter mesh and the distal filter mesh , the distal filter mesh configured for controllable expansion or retraction by said one or more control wires to capture the target clot thereinside and drag it into the proximal filter mesh , and connect said distal and proximal filter meshes to each other and secure the target clot stabilized within the clot holding area by said expandable clot holding element . said clot removal device comprising one or more control wires and an expandable clot holding element configured for penetrating and expanding inside the target clot and stabilizing and securing the target clot in its position in a clot holding area defined between the proximal filter mesh and the distal filter mesh , the distal filter mesh configured for controllable expansion or retraction by said one or more control wires to capture the target clot thereinside and drag it into the proximal filter mesh , and connect said distal and proximal filter meshes to each other and secure the target clot stabilized within the clot holding area by said expandable clot holding element .
A method comprising: at a first network access node , partitioning a plurality of user equipment that are served by a cell of the network access node into at least two groups based on at least one partitioning criterion; sending a message to a second network access node having a neighboring cell, the message comprising group indicator information for identifying those user equipment that are comprised in the at least one first group ; performing mobility load balancing procedures between the first and second network access nodes considering only those user equipment identified by the group indicator information, and simultaneously performing mobility robustness optimization procedures between the first and second network access nodes with respect to group indicator information, considering only those user equipments that are comprised in the at least one second group. at a first network access node , partitioning a plurality of user equipment that are served by a cell of the network access node into at least two groups based on at least one partitioning criterion; sending a message to a second network access node having a neighboring cell, the message comprising group indicator information for identifying those user equipment that are comprised in the at least one first group ; performing mobility load balancing procedures between the first and second network access nodes considering only those user equipment identified by the group indicator information, and simultaneously performing mobility robustness optimization procedures between the first and second network access nodes with respect to group indicator information, considering only those user equipments that are comprised in the at least one second group.
A terminal cutter comprising: a tool frame having an upper handle and a lower handle movable relative to each other; a first cutting member coupled to the upper handle and having a first cutting surface for cutting a terminal , having a locating portion , from a carrier strip carrying a plurality of terminals ; a second cutting member coupled to the lower handle and having a second cutting surface for cutting the terminal from the carrier strip ; and a terminal strip guide assembly coupled to at least one of the upper handle and the lower handle offset from the first and second cutting members , the terminal strip guide assembly comprising a strip guide having a slot configured to receive the carrier strip , characterised in that the strip guide has a guide surface adjacent the slot , wherein the guide surface is configured to engage the terminal to locate the terminal relative to the terminal strip guide assembly and to control a depth of the carrier strip received in the slot , and wherein the terminal strip guide assembly includes an adjustment plate coupled to the strip guide and a guide blade coupled to the adjustment plate and facing the guide surface across a gap configured to receive said locating portion of the terminal , the adjustment plate being adjustable relative to the strip guide to adjust a lateral position of the guide blade with respect to the guide surface to control a width of the gap . a tool frame having an upper handle and a lower handle movable relative to each other; a first cutting member coupled to the upper handle and having a first cutting surface for cutting a terminal , having a locating portion , from a carrier strip carrying a plurality of terminals ; a second cutting member coupled to the lower handle and having a second cutting surface for cutting the terminal from the carrier strip ; and a terminal strip guide assembly coupled to at least one of the upper handle and the lower handle offset from the first and second cutting members , the terminal strip guide assembly comprising a strip guide having a slot configured to receive the carrier strip , characterised in that the strip guide has a guide surface adjacent the slot , wherein the guide surface is configured to engage the terminal to locate the terminal relative to the terminal strip guide assembly and to control a depth of the carrier strip received in the slot , and wherein the terminal strip guide assembly includes an adjustment plate coupled to the strip guide and a guide blade coupled to the adjustment plate and facing the guide surface across a gap configured to receive said locating portion of the terminal , the adjustment plate being adjustable relative to the strip guide to adjust a lateral position of the guide blade with respect to the guide surface to control a width of the gap .
A non-planar transistor gate for a transistor comprising a non-planar transistor fin on a semiconductor substrate, the substrate being monocrystalline silicon or silicon-on-insulator ("SOI") or one of germanium, gallium arsenide, indium antimonide, lead telluride, indium arsenide, indium phosphide, gallium antimonide, any of which may be combined with silicon, comprising: a gate trench between a pair of gate spacers ; a gate dielectric adjacent the non-planar transistor fin within the gate trench ; and a non-planar gate electrode disposed between the pair of gate spacers , characterized in that the non-planar gate electrode includes: a NMOS work-function material conformally deposited within the gate trench and comprising aluminum, titanium, and carbon; a titanium-containing gate fill barrier conformally deposited adjacent the NMOS work-function material; and a tungsten-containing gate fill material adjacent the gate fill barrier , and wherein the transistor gate further includes a capping dielectric structure disposed in a recess between the gate spacers and adjacent the non-planar gate electrode . a gate trench between a pair of gate spacers ; a gate dielectric adjacent the non-planar transistor fin within the gate trench ; and a non-planar gate electrode disposed between the pair of gate spacers , characterized in that the non-planar gate electrode includes: a NMOS work-function material conformally deposited within the gate trench and comprising aluminum, titanium, and carbon; a titanium-containing gate fill barrier conformally deposited adjacent the NMOS work-function material; and a tungsten-containing gate fill material adjacent the gate fill barrier , and wherein the transistor gate further includes a capping dielectric structure disposed in a recess between the gate spacers and adjacent the non-planar gate electrode . a NMOS work-function material conformally deposited within the gate trench and comprising aluminum, titanium, and carbon; a titanium-containing gate fill barrier conformally deposited adjacent the NMOS work-function material; and a tungsten-containing gate fill material adjacent the gate fill barrier , and wherein the transistor gate further includes a capping dielectric structure disposed in a recess between the gate spacers and adjacent the non-planar gate electrode .
A surveying device , in particular a surface surveying device , for surveying inclinations and/or unevennesses of a preferably horizontally aligned surface of a floor surface , comprising at least one line laser which preferably self-aligns horizontally, at least one projection element on which a laser beam of the line laser is at least partially imageable as a laser line , and at least one camera which is configured to record a relative position of the laser line on the projection element , characterized in that the projection element and the camera are comprised in a mobile unit which is movable and/or displaceable along a distance to be surveyed of a floor surface .