mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing plastic moulded parts, with a plasticizing unit , which has a cylinder , and in the cylinder a rotatably and linearly drivable plasticizing screw , wherein via an opening in the cylinder a plastic material which is to be melted, preferably as granulate, powder, bars or liquid silicone, is fed into the cylinder , wherein the plastic material is fed into the cylinder by means of a volumetric dosing device , wherein the volumetric dosing device has a storage container for receiving plastic material , a rotatable dosing member and a rotary drive for actuating the dosing member , and wherein melted plastic material is injected by means of an injection stroke of the plasticizing screw into a mould , characterized in that the actual mass flow of the plastic material is calculated, wherein the actual mass flow is calculated from the return speed v screw,back,n of the plasticizing screw during a melt dosing process, the nominal diameter of the plasticizing screw and the melt density, that the actual mass flow of the plastic material is compared with a nominal mass flow of the plastic material , and that with a predefinable differential value between the actual mass flow of the plastic material and the nominal mass flow of the plastic material the rotational speed n d of the rotary drive of the dosing member is altered in such a way that the differential value is reduced, wherein the differential value is preferably to reach zero.
A data transmitting method, comprising: modulating (S201) data in a first modulation manner to generate a first symbol stream; decomposing (S202) the first symbol stream into a pre-determined number of second symbol streams, wherein each of which is modulated in a modulation manner with a modulation order lower than that of the first modulation manner, a sum of modulation orders of the modulation manners of the respective second symbol streams being equal to the modulation order of the first modulation manner; processing (S203) the pre-determined number of second symbol streams to generate a code-division-multiplexed data stream; and processing (S204) the code-division-multiplexed data stream to send the processed data stream. modulating (S201) data in a first modulation manner to generate a first symbol stream; decomposing (S202) the first symbol stream into a pre-determined number of second symbol streams, wherein each of which is modulated in a modulation manner with a modulation order lower than that of the first modulation manner, a sum of modulation orders of the modulation manners of the respective second symbol streams being equal to the modulation order of the first modulation manner; processing (S203) the pre-determined number of second symbol streams to generate a code-division-multiplexed data stream; and processing (S204) the code-division-multiplexed data stream to send the processed data stream.
A blade receiver assembly for a rotary blade, comprising: a switch comprising a switch cover and a switch base fixedly connected to each other forming an inner space, wherein the switch base comprises an opening ; an axle , having an axis (A), and comprising a structural section and a body receiver section , wherein the structural section is provided at least partially within the switch and the body receiver section is provided outside the switch ; a spring provided inside the inner space of the switch ; wherein the axle is movable against a spring force of the spring through the opening of the switch base in relation to the switch , characterized in that a magnet is incorporated in the structural section of the axle , wherein the magnet is arranged at a distance away from the axis (A) of the axle , and a surface of the magnet is at a same plane as the switch base when the spring is not in a compressed position. a switch comprising a switch cover and a switch base fixedly connected to each other forming an inner space, wherein the switch base comprises an opening ; an axle , having an axis (A), and comprising a structural section and a body receiver section , wherein the structural section is provided at least partially within the switch and the body receiver section is provided outside the switch ; a spring provided inside the inner space of the switch ; wherein the axle is movable against a spring force of the spring through the opening of the switch base in relation to the switch , characterized in that a magnet is incorporated in the structural section of the axle , wherein the magnet is arranged at a distance away from the axis (A) of the axle , and a surface of the magnet is at a same plane as the switch base when the spring is not in a compressed position.
An anomaly determining system, comprising: input data generation means for generating, for each of a plurality of periods, based on log data indicating a log of a behavior of a user with respect to a given computer resource for the each of the plurality of periods, input data for the each of the plurality of periods, which is associated with the log data; user probability data generation means for generating, based on output obtained from a trained model when the input data is input to the trained model, user probability data indicating a probability value of a probability that the log data associated with the input data indicates the log of the behavior of the user; and anomaly determination means for determining whether an anomaly has occurred in the behavior of the user during a latest period based on the user probability data generated based on the input data for the latest period and the user probability data generated based on the input data for a period before the latest period. user probability data generation means for generating, based on output obtained from a trained model when the input data is input to the trained model, user probability data indicating a probability value of a probability that the log data associated with the input data indicates the log of the behavior of the user; and anomaly determination means for determining whether an anomaly has occurred in the behavior of the user during a latest period based on the user probability data generated based on the input data for the latest period and the user probability data generated based on the input data for a period before the latest period.
A handheld ultrasound imaging device , comprising: a housing comprising: an ultrasound imaging unit ; a hand grip region between the ultrasound imaging unit and a rotatable display; and the rotatable display connected to the housing via a pivot , wherein the pivot allows for rotation of the display , relative to the hand grip region , about at least two rotational axes by at least about 30 degrees, and a marking unit detachably coupled to the housing and comprising a probe indicator configured to indicate proper placement of a probe at or near a target that is to be imaged, wherein, during use, the marking unit is arranged to be positioned between the ultrasound imaging unit and the target that is to be imaged, such that, during use, a line extending between the target and the ultrasound imaging unit intersects the marking unit , wherein the marking unit comprises a moveable tab configured to indicate a site corresponding to a center of a scan plane , wherein the moveable tab is foldable into a center cavity within the marking unit to make a visible indentation at a site corresponding to the center of the scan plane when the housing has been detached from the marking unit . an ultrasound imaging unit ; a hand grip region between the ultrasound imaging unit and a rotatable display; and the rotatable display connected to the housing via a pivot , wherein the pivot allows for rotation of the display , relative to the hand grip region , about at least two rotational axes by at least about 30 degrees, and a marking unit detachably coupled to the housing and comprising a probe indicator configured to indicate proper placement of a probe at or near a target that is to be imaged, wherein, during use, the marking unit is arranged to be positioned between the ultrasound imaging unit and the target that is to be imaged, such that, during use, a line extending between the target and the ultrasound imaging unit intersects the marking unit , wherein the marking unit comprises a moveable tab configured to indicate a site corresponding to a center of a scan plane , wherein the moveable tab is foldable into a center cavity within the marking unit to make a visible indentation at a site corresponding to the center of the scan plane when the housing has been detached from the marking unit .
A light emitting device comprising a polymeric charge transfer layer, wherein the polymeric charge transfer layer is formed from a composition comprising a polymer, said polymer comprising one or more units of, in polymerized form, Structure A, characterized in that Structure A is selected from the following A1) - A8): wherein O is oxygen; and wherein Q is selected from the following: hydrogen, deuterium, a hydrocarbyl, a substituted hydrocarbyl, a heterohydrocarbyl, a substituted heterohydrocarbyl, a halogen, a cyano, an aryl, a substituted aryl, a heteroaryl, a substituted heteroaryl; and wherein the polymer further comprises one or more polymerized units derived from a cross-linking agent selected from the following 1i) - 8i):
A damping element formed as a bag (1, 1', 1") for acoustic damping in a noise barrier, comprising shredded plastic material, preferably shredded flakes, packed into the bag, wherein said bag has a surface wall enabling a mechanical constrainment of the shredded material, wherein the density of the packed shredded material inside the bag is in the range of 200-600 kg/m3, characterised in that said shredded material is a shredded fiber-reinforced composite material made of glass- or carbon-fibers embedded in or bounded to a polymer matrix material.
A solid oxide fuel cell electricity generation unit comprising: a unit cell including an electrolyte layer containing a solid oxide, and a cathode and an anode which face each other with the electrolyte layer intervening therebetween; an electrically conductive current collecting member disposed on the cathode side of the unit cell ; an electrically conductive coating which covers the surface of the current collecting member ; and an electrically conductive bonding layer which bonds the cathode to the current collecting member covered with the coating , wherein the following relationship is satisfied: a porosity (Pc) of the coating < a porosity (Pa) of the bonding layer < a porosity (Pe) of the cathode , wherein the coating and the bonding layer are formed of a spinel oxide. a unit cell including an electrolyte layer containing a solid oxide, and a cathode and an anode which face each other with the electrolyte layer intervening therebetween; an electrically conductive current collecting member disposed on the cathode side of the unit cell ; an electrically conductive coating which covers the surface of the current collecting member ; and an electrically conductive bonding layer which bonds the cathode to the current collecting member covered with the coating , wherein the following relationship is satisfied: a porosity (Pc) of the coating < a porosity (Pa) of the bonding layer < a porosity (Pe) of the cathode , wherein the coating and the bonding layer are formed of a spinel oxide.
A process for the production of a heat exchange fluid heated by the combustion of a fuel, said process comprising the steps of: a) burning said fuel in a furnace which comprises a combustion chamber, thus generating a flow of exhaust gas comprising suspended solid particulate matter; b) transferring said flow of exhaust gas to at least one cyclone, which is located outside said combustion chamber; c) subjecting said flow of exhaust gas to a forced abatement of said solid particulate matter inside said at least one cyclone, thus obtaining a purified exhaust gas flow and a solid precipitate which comprises said solid particulate matter; d) transferring said purified exhaust gas flow to a heat exchange unit inside which a heat exchange fluid flows; e) carrying out an indirect heat exchange between said purified exhaust gas flow and said heat exchange fluid, thus obtaining a flow of cooled purified gas and a heated heat exchange fluid; wherein said exhaust gas flow and said purified exhaust gas flow have a temperature higher than 400°C; characterized in that said steps a-d are carried out in adiabatic conditions. a) burning said fuel in a furnace which comprises a combustion chamber, thus generating a flow of exhaust gas comprising suspended solid particulate matter; b) transferring said flow of exhaust gas to at least one cyclone, which is located outside said combustion chamber; c) subjecting said flow of exhaust gas to a forced abatement of said solid particulate matter inside said at least one cyclone, thus obtaining a purified exhaust gas flow and a solid precipitate which comprises said solid particulate matter; d) transferring said purified exhaust gas flow to a heat exchange unit inside which a heat exchange fluid flows; e) carrying out an indirect heat exchange between said purified exhaust gas flow and said heat exchange fluid, thus obtaining a flow of cooled purified gas and a heated heat exchange fluid; wherein said exhaust gas flow and said purified exhaust gas flow have a temperature higher than 400°C; characterized in that said steps a-d are carried out in adiabatic conditions.
A trampoline with adjustable elasticity, wherein the trampoline comprises several corresponding trampoline ring parts , and adjacent trampoline ring parts are connected through a joint to form the trampoline; and an arc length between the adjacent trampoline ring parts changes through adjustment of the j oint, and is fixed after relative positions of the two adjacent trampoline ring parts are properly adjusted, characterized in that the joint is T-shaped, and comprises a column and a connecting tube that connects the adjacent trampoline ring parts ; a connecting rod is provided, and a through hole for the connecting rod to pass through is provided on the column in a transverse direction, and positioning parts that are located on two sides of the through hole and position the connecting rod are provided on the connecting rod ; and joint end portions of the adjacent trampoline ring parts extend downwardly to form connecting bases corresponding to the connecting rod , a connecting hole for the connecting rod to pass through is provided on each connecting base , and a position of the connecting rod on the connecting hole is adjustable and fixed. an arc length between the adjacent trampoline ring parts changes through adjustment of the j oint, and is fixed after relative positions of the two adjacent trampoline ring parts are properly adjusted, characterized in that the joint is T-shaped, and comprises a column and a connecting tube that connects the adjacent trampoline ring parts ; a connecting rod is provided, and a through hole for the connecting rod to pass through is provided on the column in a transverse direction, and positioning parts that are located on two sides of the through hole and position the connecting rod are provided on the connecting rod ; and joint end portions of the adjacent trampoline ring parts extend downwardly to form connecting bases corresponding to the connecting rod , a connecting hole for the connecting rod to pass through is provided on each connecting base , and a position of the connecting rod on the connecting hole is adjustable and fixed.
Housing for a subregion of a component which rotates about a rotation axis , wherein the housing surrounds the rotation axis and wherein the housing has at least one housing segment , wherein the housing segment is provided for covering a subregion in the axial direction of the rotation axis and for covering a subregion in the circumferential direction of the rotating component , wherein the housing segment is manufactured from a plastic, comprises an electronics enclosure for an electronics module , has a cavity for receiving an antenna , which cavity is arranged radially outside the electronics enclosure and is connected to the electronics enclosure in via an aperture, housing segment can be connected to further housing segments for forming a housing which, preferably coaxially, surrounds the rotating component , and is provided by means of interlocking connections for connection to further housing segments , preferably for connection having play , wherein the cavity for receiving an antenna surrounds the rotation axis in an annular manner in the circumferential direction.
An optical actuator, comprising: a base ; a lens module having an outer side surface including two first side surfaces opposite to each other; and a plurality of shape memory alloy wires forming two wire groups, wherein the two wire groups are disposed on the two first side surfaces , respectively; and two ends of each shape memory alloy wire are fixed on a base-end fixing device and a lens-end fixing device , respectively, wherein the base-end fixing device is fixed to the base , and the lens-end fixing device is disposed on the first side surface and fixed to the lens module ; wherein the direction of the resultant force acting on the lens module by the two wire groups is consistent with the direction of the optical axis of the lens module , so that the lens module is driven to move along the direction of the optical axis of the lens module by means of expansion and contraction of the shape memory alloy wires of the two wire groups; characterized in that , wherein each of the two wire groups includes two sub-wire groups, each sub-wire group including two shape memory alloy wires ; wherein for each sub-wire group, projections of its two shape memory alloy wires on the first side surface are in a crossing state, and the two shape memory alloy wires are staggered in the direction perpendicular to the first side surface , so that the two shape memory alloy wires are not coplanar. a base ; a lens module having an outer side surface including two first side surfaces opposite to each other; and a plurality of shape memory alloy wires forming two wire groups, wherein the two wire groups are disposed on the two first side surfaces , respectively; and two ends of each shape memory alloy wire are fixed on a base-end fixing device and a lens-end fixing device , respectively, wherein the base-end fixing device is fixed to the base , and the lens-end fixing device is disposed on the first side surface and fixed to the lens module ; wherein the direction of the resultant force acting on the lens module by the two wire groups is consistent with the direction of the optical axis of the lens module , so that the lens module is driven to move along the direction of the optical axis of the lens module by means of expansion and contraction of the shape memory alloy wires of the two wire groups; characterized in that , wherein each of the two wire groups includes two sub-wire groups, each sub-wire group including two shape memory alloy wires ; wherein for each sub-wire group, projections of its two shape memory alloy wires on the first side surface are in a crossing state, and the two shape memory alloy wires are staggered in the direction perpendicular to the first side surface , so that the two shape memory alloy wires are not coplanar.
A surgical instrument , comprising: an elongate shaft assembly ; an elongate channel coupled to said elongate shaft assembly and configured to operably support a surgical fastener cartridge therein; an anvil pivotally coupled to said elongate channel for selective pivotal travel relative thereto between a fully open position and a fully closed position about a fixed jaw pivot axis (PA 1 ); a closure member configured to apply closure motions to said anvil to move said anvil between said fully open position and said fully closed position whilst said channel remains stationary relative to said elongate shaft assembly , as said closure member is moved from a starting position to an ending position; and an axially movably firing member comprising at least one anvil engagement feature thereon that is configured to apply additional closure motions to said anvil as said axially movable firing member is moved from a proximal most position to a distalmost position within said elongate channel ; characterized in that , when said closure member is in said starting position and said axially movable firing member is in said proximal most position, a distal end of said closure member is distal to a distal end of said at least one anvil engagement feature . an elongate shaft assembly ; an elongate channel coupled to said elongate shaft assembly and configured to operably support a surgical fastener cartridge therein; an anvil pivotally coupled to said elongate channel for selective pivotal travel relative thereto between a fully open position and a fully closed position about a fixed jaw pivot axis (PA 1 ); a closure member configured to apply closure motions to said anvil to move said anvil between said fully open position and said fully closed position whilst said channel remains stationary relative to said elongate shaft assembly , as said closure member is moved from a starting position to an ending position; and an axially movably firing member comprising at least one anvil engagement feature thereon that is configured to apply additional closure motions to said anvil as said axially movable firing member is moved from a proximal most position to a distalmost position within said elongate channel ; characterized in that , when said closure member is in said starting position and said axially movable firing member is in said proximal most position, a distal end of said closure member is distal to a distal end of said at least one anvil engagement feature .
An aerosol-generating device configured to heat an aerosol-forming substrate , comprising: a power supply ; a heater positioned to heat the aerosol-forming substrate to form an aerosol; a controller configured to control the supply of power from the power supply to the heater; and a gas sensor that is sensitive to a particular gas or gases, wherein a response of the gas sensor is dependent on a temperature of the gas sensor, and wherein the controller is connected to the gas sensor and is configured to monitor signals from the gas sensor, and wherein the gas sensor is configured to operate within an operational temperature range above ambient temperature, and wherein the gas sensor is positioned such that in use the heater heats the gas sensor to within its operational temperature range when heating the aerosol-forming substrate to form an aerosol. a power supply ; a heater positioned to heat the aerosol-forming substrate to form an aerosol; a controller configured to control the supply of power from the power supply to the heater; and a gas sensor that is sensitive to a particular gas or gases, wherein a response of the gas sensor is dependent on a temperature of the gas sensor, and wherein the controller is connected to the gas sensor and is configured to monitor signals from the gas sensor, and wherein the gas sensor is configured to operate within an operational temperature range above ambient temperature, and wherein the gas sensor is positioned such that in use the heater heats the gas sensor to within its operational temperature range when heating the aerosol-forming substrate to form an aerosol.