mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for immunity regulation and/or stimulation for use in a method for the prevention and/or alleviation of the symptoms related to pathogenic infections comprising viral infections, bacterial infections, parasitic infections such as malaria, fungal infections, superinfections and episodic infections, per 100g or 100ml, comprising the combination of: • 10μg to 1000μg of positively charged minerals consisting of magnesium, • 10μg to 1000μg of metals selected from zinc and iron • 7μg to 700μg of at least one plant oil selected from Ribes nigrum Oleum Acini (blackcurrant seed oil) and Elaeis guineensis Oleum (palm oil), • 6μg to 600μg of at least two plant extracts selected from Thymus vulgaris (thyme), Cicer arietinum (chickpea), and Ervum lens (lentil), • 6μg to 600μg of at least one alga chosen among Fucus vesiculosus (Fucus), Undaria pinnatifida (Wakame), Palmaria palmata (Dulse), and Porphyra umbilicalis (Nori), • 7μg to 700μg of at least one mushroom chosen among Lentinula edodes (Shiitake) and Grifola frondosa (Maitake), • 8μg to 800μg of at least one vitamin chosen among vitamins A, B1, B2, B5, B6, B9, C, E, PP(B3); optionally with a suitable excipient. • 10μg to 1000μg of positively charged minerals consisting of magnesium, • 10μg to 1000μg of metals selected from zinc and iron • 7μg to 700μg of at least one plant oil selected from Ribes nigrum Oleum Acini (blackcurrant seed oil) and Elaeis guineensis Oleum (palm oil), • 6μg to 600μg of at least two plant extracts selected from Thymus vulgaris (thyme), Cicer arietinum (chickpea), and Ervum lens (lentil), • 6μg to 600μg of at least one alga chosen among Fucus vesiculosus (Fucus), Undaria pinnatifida (Wakame), Palmaria palmata (Dulse), and Porphyra umbilicalis (Nori), • 7μg to 700μg of at least one mushroom chosen among Lentinula edodes (Shiitake) and Grifola frondosa (Maitake), • 8μg to 800μg of at least one vitamin chosen among vitamins A, B1, B2, B5, B6, B9, C, E, PP(B3);
A safety critical system (SCS) comprising a safety apparatus (1-1) of a subsystem (2-1), a safety apparatus (1-2) of a target subsystem (2-2) and a safety cloud server said safety apparatus (1-1) providing a safe operation of the subsystem (2-1) within the safety critical system (SCS), said safety apparatus (1-1) comprising: - a system communication interface for communication with components (c) of said subsystem (2-1) and other subsystems of said safety critical system (SCS); - a backend communication interface for communication with the safety cloud server ; - an integrated identifier memory storing a unique identifier of said subsystem (2-1); and - an authorization control unit adapted to perform a handshake authorization procedure with the safety apparatus (1-2) of the target subsystem (2-2) of said safety critical system (SCS), wherein the safety apparatus (1-2) of the target subsystem (2-2) is adapted to perform a handshake with the safety cloud server via its backend communication interface to get authorization for the subsystem (2-1) to execute a safety critical function, SCF, on the target subsystem (2-2) of said safety critical system (SCS) on the basis of the unique identifiers of both subsystems (2-1, 2-2) sent by the safety apparatus (1-2) of the target subsystem (2-2) in an authorization inquiry message (AIM) to said safety cloud server . - a system communication interface for communication with components (c) of said subsystem (2-1) and other subsystems of said safety critical system (SCS); - a backend communication interface for communication with the safety cloud server ; - an integrated identifier memory storing a unique identifier of said subsystem (2-1); and - an authorization control unit adapted to perform a handshake authorization procedure with the safety apparatus (1-2) of the target subsystem (2-2) of said safety critical system (SCS), wherein the safety apparatus (1-2) of the target subsystem (2-2) is adapted to perform a handshake with the safety cloud server via its backend communication interface to get authorization for the subsystem (2-1) to execute a safety critical function, SCF, on the target subsystem (2-2) of said safety critical system (SCS) on the basis of the unique identifiers of both subsystems (2-1, 2-2) sent by the safety apparatus (1-2) of the target subsystem (2-2) in an authorization inquiry message (AIM) to said safety cloud server .
An endoscope system (100; 300; 400; 600; 800), comprising: an endoscope (12; 412; 612; 812) comprising a steerable distal end (24; 324; 424; 624) with a camera and an orientation sensor; and a hand-held controller (14; 314; 414; 614; 814) in communication with the endoscope (12; 412; 612; 812) and comprising a display screen (16; 316; 416) and a hardware memory storing instructions to adapt the endoscope system to: displaying on the display screen (16; 316; 416) a view (20; 320; 644; 620) from the camera; detecting rotational movement of the steerable distal end (24; 324; 424; 624) of the endoscope (12; 412; 612; 812); maintaining a rotational orientation of the view (20; 320; 644; 620) from the camera displayed on the display screen (16; 316; 416); characterized in further storing instructions for: displaying a graphical orientation indicator (30; 32; 34; 330; 336) representing an orientation of the steerable distal end (24; 324; 424; 624) of the endoscope (12; 412; 612; 812); and modifying the graphical orientation indicator (30; 32; 34; 330; 336) to represent the detected rotational movement of the steerable distal end (24; 324; 424; 624). an endoscope (12; 412; 612; 812) comprising a steerable distal end (24; 324; 424; 624) with a camera and an orientation sensor; and a hand-held controller (14; 314; 414; 614; 814) in communication with the endoscope (12; 412; 612; 812) and comprising a display screen (16; 316; 416) and a hardware memory storing instructions to adapt the endoscope system to: displaying on the display screen (16; 316; 416) a view (20; 320; 644; 620) from the camera; detecting rotational movement of the steerable distal end (24; 324; 424; 624) of the endoscope (12; 412; 612; 812); maintaining a rotational orientation of the view (20; 320; 644; 620) from the camera displayed on the display screen (16; 316; 416); displaying on the display screen (16; 316; 416) a view (20; 320; 644; 620) from the camera; detecting rotational movement of the steerable distal end (24; 324; 424; 624) of the endoscope (12; 412; 612; 812); maintaining a rotational orientation of the view (20; 320; 644; 620) from the camera displayed on the display screen (16; 316; 416); displaying a graphical orientation indicator (30; 32; 34; 330; 336) representing an orientation of the steerable distal end (24; 324; 424; 624) of the endoscope (12; 412; 612; 812); and modifying the graphical orientation indicator (30; 32; 34; 330; 336) to represent the detected rotational movement of the steerable distal end (24; 324; 424; 624).
Screw pump module for the extrusion of plastic materials comprising: - a drive motor ; - a body with an inlet and an outlet for the molten material; - a hollow cylinder with an inlet and an outlet ; - a screw with a helical thread around the circumference; - a connection conduit between the inlet of the hollow cylinder and the inlet of the body ; or - a connection conduit between the outlet of the hollow cylinder and the outlet of the body ; wherein said screw is rotated by said drive motor and wherein inside said hollow cylinder said screw with a helical thread rotates; wherein the molten material enters from the inlet of the hollow cylinder and, following the rotation of said screw with a helical thread , exits from the outlet of said hollow cylinder, ; characterized in that : said inlet and said outlet of the body are at the same end of said body and have a common main axis; wherein said inlet and said outlet are respectively equipped with a flange for the inlet and a flange for the outlet of the molten material, and where the flanges are positioned with a coincident axis; wherein said inlet and said outlet are flanged, and are positioned at 90° with respect to the main axis of the screw ; wherein inside said body is located said connection conduit through which the molten material that enters from the inle of the body reaches the inlet of the hollow cylinder; or through which the molten material leaving the hollow cylinder reaches the outlet of the body , and wherein said connecting conduit is positioned with its axis parallel to the main axis of the screw . - a drive motor ; - a body with an inlet and an outlet for the molten material; - a hollow cylinder with an inlet and an outlet ; - a screw with a helical thread around the circumference; - a connection conduit between the inlet of the hollow cylinder and the inlet of the body ; or - a connection conduit between the outlet of the hollow cylinder and the outlet of the body ; wherein said screw is rotated by said drive motor and wherein inside said hollow cylinder said screw with a helical thread rotates; wherein the molten material enters from the inlet of the hollow cylinder and, following the rotation of said screw with a helical thread , exits from the outlet of said hollow cylinder, ; characterized in that : said inlet and said outlet of the body are at the same end of said body and have a common main axis; wherein said inlet and said outlet are respectively equipped with a flange for the inlet and a flange for the outlet of the molten material, and where the flanges are positioned with a coincident axis; wherein said inlet and said outlet are flanged, and are positioned at 90° with respect to the main axis of the screw ; wherein inside said body is located said connection conduit through which the molten material that enters from the inle of the body reaches the inlet of the hollow cylinder; or through which the molten material leaving the hollow cylinder reaches the outlet of the body , and wherein said connecting conduit is positioned with its axis parallel to the main axis of the screw .
Method, - wherein a first hearing device is associated with a first user (N) and a second hearing device is associated with another, second user (O), - wherein the first hearing device transmits a first acoustic ID (ID1) of a voice of the first user (N) as a coupling request (K1), - wherein the second hearing device receives the first acoustic ID (ID1) and compares it with a second acoustic ID (ID2), - wherein the second hearing device transmits a coupling acceptance (K2) if the first acoustic ID (ID1) matches the second acoustic ID (ID2), with the result that the first hearing device is coupled to the second hearing device for the purpose of data interchange between these two hearing devices . - wherein a first hearing device is associated with a first user (N) and a second hearing device is associated with another, second user (O), - wherein the first hearing device transmits a first acoustic ID (ID1) of a voice of the first user (N) as a coupling request (K1), - wherein the second hearing device receives the first acoustic ID (ID1) and compares it with a second acoustic ID (ID2), - wherein the second hearing device transmits a coupling acceptance (K2) if the first acoustic ID (ID1) matches the second acoustic ID (ID2), with the result that the first hearing device is coupled to the second hearing device for the purpose of data interchange between these two hearing devices .
A multirotor aircraft comprising a plurality of thrust producing units , each thrust producing unit of the plurality of thrust producing units being inclined in a lateral direction of the multirotor aircraft and comprising at least one rotor assembly and a shrouding , the shrouding surrounding the rotor assembly in circumferential direction, and forming an air duct that is associated with the at least one rotor assembly and axially delimited by an air inlet region and an air outlet region , and wherein the shrouding comprises a main aerodynamic load carrying primary structure and a stiffening secondary structure that completely encapsulates the main aerodynamic load carrying primary structure and comprises at least one inflexible lightweight volume material, wherein the stiffening secondary structure reduces elastic movements of the main aerodynamic load carrying primary structure under loading conditions.
Copolymer of ethylene and β-farnesene which comprises ethylene units and β-farnesene units, the content of ethylene units in the copolymer being greater than 50 mol% of the ethylene units and β-farnesene units and less than 95 mol% of the ethylene units and β-farnesene units.
A tire comprising: a carcass having a toroidal shape; a belt layer disposed inward of a tread portion and outward of the carcass in a tire radial direction; and a band layer disposed inward of the tread portion and outward of the belt layer in the tire radial direction, wherein the band layer is formed by helically winding a band ply in which at least one band cord is covered with topping rubber , and the band layer includes a gap (G) over which side edges , of the band ply , adjacent to each other in a tire axial direction are spaced from each other, the band layer includes a crown portion that includes a tire equator (C), and a pair of shoulder portions disposed outward of both outer sides of the crown portion , a width (Wc), in the tire axial direction, of the gap (Gc) in the crown portion is less than a width (Ws), in the tire axial direction, of the gap Gs in the shoulder portions , the band layer has end portions that are disposed outward of both outer sides of the paired shoulder portions , characterized in that the end portions cover outer ends of the belt layer in the tire axial direction, and are wound such that adjacent portions, in the tire axial direction, of the band ply are in contact with each other. a carcass having a toroidal shape; a belt layer disposed inward of a tread portion and outward of the carcass in a tire radial direction; and a band layer disposed inward of the tread portion and outward of the belt layer in the tire radial direction, wherein the band layer is formed by helically winding a band ply in which at least one band cord is covered with topping rubber , and the band layer includes a gap (G) over which side edges , of the band ply , adjacent to each other in a tire axial direction are spaced from each other, the band layer includes a crown portion that includes a tire equator (C), and a pair of shoulder portions disposed outward of both outer sides of the crown portion , a width (Wc), in the tire axial direction, of the gap (Gc) in the crown portion is less than a width (Ws), in the tire axial direction, of the gap Gs in the shoulder portions , the band layer has end portions that are disposed outward of both outer sides of the paired shoulder portions , characterized in that the end portions cover outer ends of the belt layer in the tire axial direction, and are wound such that adjacent portions, in the tire axial direction, of the band ply are in contact with each other.
A vacuum pump for a prosthetic device, comprising: a housing having an inner wall ; a piston having an outer diameter and being secured within the housing ; a shaft having an inner surface and being positioned between the inner wall of the housing and the outer diameter of the piston ; an upper fluid chamber positioned between a top surface of the piston and the inner surface of the shaft , the upper fluid chamber having a variable volume as the shaft moves axially in relation to the piston and the housing , the upper fluid chamber being fluidly connectable to a socket of the prosthetic device through a first valve and fluidly connected to atmosphere through a second valve and that a lower fluid chamber being fluidly connectable to the socket through a third valve and fluidly connected to atmosphere through a fourth valve , characterized in that the lower fluid chamber is positioned between a bottom surface of the piston and the inner surface of the shaft , the lower fluid chamber having a variable volume as the shaft moves axially in relation to the piston and the housing . a housing having an inner wall ; a piston having an outer diameter and being secured within the housing ; a shaft having an inner surface and being positioned between the inner wall of the housing and the outer diameter of the piston ; an upper fluid chamber positioned between a top surface of the piston and the inner surface of the shaft , the upper fluid chamber having a variable volume as the shaft moves axially in relation to the piston and the housing , the upper fluid chamber being fluidly connectable to a socket of the prosthetic device through a first valve and fluidly connected to atmosphere through a second valve and that a lower fluid chamber being fluidly connectable to the socket through a third valve and fluidly connected to atmosphere through a fourth valve , characterized in that the lower fluid chamber is positioned between a bottom surface of the piston and the inner surface of the shaft , the lower fluid chamber having a variable volume as the shaft moves axially in relation to the piston and the housing .
A computer-implemented method comprising: inserting, by an agent, plurality of hooks into a sub-execution runtime environment into various points in a execution process, the sub-execution runtime environment configured to include a script and/or targeted to include the script; wherein the sub-execution runtime environment is an execution environment implemented within a context of another execution environment; monitoring, by the agent including the plurality of hooks, a behavior of the sub-execution runtime environment and/or the script; obtaining, by the agent including the plurality of hooks, context information regarding the sub-execution runtime environment and/or the script; and controlling, by the agent, a runtime of at least the sub-execution runtime environment and/or the script, wherein the controlling is based on the monitored behavior and the obtained context information, characterized in that the agent installs hooks in additional operating system and/or script execution environment-related modules as they are loaded into the execution environment including a memory. inserting, by an agent, plurality of hooks into a sub-execution runtime environment into various points in a execution process, the sub-execution runtime environment configured to include a script and/or targeted to include the script; wherein the sub-execution runtime environment is an execution environment implemented within a context of another execution environment; monitoring, by the agent including the plurality of hooks, a behavior of the sub-execution runtime environment and/or the script; obtaining, by the agent including the plurality of hooks, context information regarding the sub-execution runtime environment and/or the script; and controlling, by the agent, a runtime of at least the sub-execution runtime environment and/or the script, wherein the controlling is based on the monitored behavior and the obtained context information, characterized in that the agent installs hooks in additional operating system and/or script execution environment-related modules as they are loaded into the execution environment including a memory.
A method for fabricating one or more cavities in a silicon substrate underneath an insulator layer of a silicon on insulator, SOI, structure , the method comprising: etching, before performing a first dry etch , one or more trenches through the insulator layer and into the silicon substrate of the SOI structure ; performing the first dry etch of the silicon substrate to create the one or more cavities underneath the insulator layer , wherein the first dry etch is performed through the one or more trenches to create the one or more cavities underneath the insulator layer ; performing a first wet etch of the silicon substrate to expand the one or more cavities ; performing a second dry etch of the silicon substrate to further expand the one or more cavities and to break silicon facets created by the first wet etch; and performing a second wet etch to further expand the one or more cavities , wherein the dry etches are selective bulk silicon etches. etching, before performing a first dry etch , one or more trenches through the insulator layer and into the silicon substrate of the SOI structure ; performing the first dry etch of the silicon substrate to create the one or more cavities underneath the insulator layer , wherein the first dry etch is performed through the one or more trenches to create the one or more cavities underneath the insulator layer ; performing a first wet etch of the silicon substrate to expand the one or more cavities ; performing a second dry etch of the silicon substrate to further expand the one or more cavities and to break silicon facets created by the first wet etch; and performing a second wet etch to further expand the one or more cavities , wherein the dry etches are selective bulk silicon etches.
A semi-crystalline thiourethane polymer, comprising: a sequential chain of a first type of monomer covalently bonded to a second type of monomer via thiourethane linkages, wherein: each of the first type of monomer includes two or more thiol functional groups and each of the second type of monomer includes two or more isocyanate functional groups, and the first and second types of monomers are polymerized together in an anionic step-growth polymerization reaction that is catalyzed by a non-nucleophillic base having a pKa greater than 7, the non-nucleophillic base produced by photo-initiated decomposition of a photolatent base. each of the first type of monomer includes two or more thiol functional groups and each of the second type of monomer includes two or more isocyanate functional groups, and the first and second types of monomers are polymerized together in an anionic step-growth polymerization reaction that is catalyzed by a non-nucleophillic base having a pKa greater than 7, the non-nucleophillic base produced by photo-initiated decomposition of a photolatent base.
A cartridge for use with an apparatus for heating smokable material to volatilize at least one component of the smokable material , the cartridge comprising: a container that defines a cavity , wherein the container defines an opening into the cavity ; smokable material disposed in the cavity ; a seal sealing the opening ; and heatable heater material disposed in the cavity , the heatable heater material configured to, in use, be heated by penetration with a varying magnetic field and to thereby heat the smokable material , and wherein the heater material comprises a metal or a metal alloy. a container that defines a cavity , wherein the container defines an opening into the cavity ; smokable material disposed in the cavity ; a seal sealing the opening ; and heatable heater material disposed in the cavity , the heatable heater material configured to, in use, be heated by penetration with a varying magnetic field and to thereby heat the smokable material , and wherein the heater material comprises a metal or a metal alloy.