mhurhangee/ep-ind-claims huggingface dataset:
A hot rivet connection for non-detachably fastening at least one component to a further component, having a hot rivet with a head and an adjoining shaft, the end face of which facing away from the head is welded to a surface of the further component, wherein the shaft of the hot rivet is upset under plastic deformation, wherein the hot rivet is guided through a receiving opening of the at least one component, and in that the receiving opening has an undercut which interacts with a plastically deformed area of the shaft, characterized in that the component has a thickness reduction in the area of the hot rivet connection on a surface facing away from the shaft. wherein the shaft of the hot rivet is upset under plastic deformation, wherein the hot rivet is guided through a receiving opening of the at least one component, and in that the receiving opening has an undercut which interacts with a plastically deformed area of the shaft, characterized in that the component has a thickness reduction in the area of the hot rivet connection on a surface facing away from the shaft.
A method by a terminal, which is concurrently connected to a master node and a secondary node in a wireless communication system, the method comprising: setting a first data inactivity timer for the secondary node; resetting the first data inactivity timer based on the secondary node receiving scheduling; and transmitting, to the master node, a signal to reset a secondary data inactivity timer for the master node, wherein, if the terminal determines that the first data inactivity timer has expired, the method further comprises: transmitting a secondary node release message to at least one of the master node and the secondary node, and wherein if the master node determines that the secondary data inactivity timer has expired, the terminal and the master node transition to an RRC idle state. setting a first data inactivity timer for the secondary node; resetting the first data inactivity timer based on the secondary node receiving scheduling; and transmitting, to the master node, a signal to reset a secondary data inactivity timer for the master node, wherein, if the terminal determines that the first data inactivity timer has expired, the method further comprises: transmitting a secondary node release message to at least one of the master node and the secondary node, and wherein if the master node determines that the secondary data inactivity timer has expired, transmitting a secondary node release message to at least one of the master node and the secondary node, and wherein if the master node determines that the secondary data inactivity timer has expired, the terminal and the master node transition to an RRC idle state.
Roller blind sheet for a protective device of a vehicle interior compartment, comprising a flexible two-dimensional structure which is displaceable between a pulled-out protective position and a compactly stored rest position in a vehicle interior, wherein the two-dimensional structure is associated with lateral reinforcing tapes on opposite longitudinal sides thereof, and in the assembled state said tapes are guided in vehicle-related guiding rails to be lengthwise shiftable, wherein the reinforcing tapes are embodied as metal tapes, characterized in that on the longitudinal sides of the two-dimensional structure thin connecting strands made of metal are fixed, which are welded to the respective metal tape using a plurality of welding spots spaced along the longitudinal direction of the longitudinal sides.
A steel chisel (1,2), comprising: an elongate shank (3, 6) having a longitudinal axis (5, 8), and a working end region (7, 10), characterised in that the steel of the shank is selected from the group consisting of: 1.6582 34CrNiMo6; and 1.2249 45SiCrV6 and has a microstructure comprising bainite, and the steel of the working end region is selected from the group consisting of: S7; 1.2357 50CrMoV 13-14; 1.2542 45WCrV7; and 1.2362 X63CrMoV 5-1 and has a microstructure comprising martensite. an elongate shank (3, 6) having a longitudinal axis (5, 8), and a working end region (7, 10), characterised in that the steel of the shank is selected from the group consisting of: 1.6582 34CrNiMo6; and 1.2249 45SiCrV6 and has a microstructure comprising bainite, and the steel of the working end region is selected from the group consisting of: S7; 1.2357 50CrMoV 13-14; 1.2542 45WCrV7; and 1.2362 X63CrMoV 5-1 and has a microstructure comprising martensite.
An apparatus for providing tuning in a wireless power transfer system, comprising: a tuning element, the tuning element comprising capacitors, or inductors, or a combination of both; a field effect transistor having a gate, a first terminal contact (724, 722), and a second terminal contact (722, 724), said first terminal contact is at an alternating current voltage, the field effect transistor configured to electrically engage the tuning element to an AC power path based on a change in bias potential of the gate with respect to the first terminal contact, wherein the tuning element is connected parallel to the field effect transistor; and characterised by a first capacitor coupled between the first terminal contact and the AC power path and a second capacitor coupled between the second terminal contact and the AC power path. a tuning element, the tuning element comprising capacitors, or inductors, or a combination of both; a field effect transistor having a gate, a first terminal contact (724, 722), and a second terminal contact (722, 724), said first terminal contact is at an alternating current voltage, the field effect transistor configured to electrically engage the tuning element to an AC power path based on a change in bias potential of the gate with respect to the first terminal contact, wherein the tuning element is connected parallel to the field effect transistor; and characterised by a first capacitor coupled between the first terminal contact and the AC power path and a second capacitor coupled between the second terminal contact and the AC power path.
A particle reactor for the exhaust gas stream of a gasoline engine comprising an enclosure having an exhaust gas inlet and an outlet, said enclosure having a reaction surface, an air distribution manifold upstream of said reaction surface adapted to promote rapid mixing of air with the exhaust gas stream and a controller for admitting air via said manifold at a rate for oxidation of substantially all of the carbonaceous particles in said exhaust stream, characterised by a heat exchanger upstream of said manifold whereby incoming air is warmed by heat from said exhaust gas stream, said heat exchanger comprising an exhaust component wherein said exhaust component comprises a catalytic converter upstream of said particle reactor.
A mobile communication method, comprising a step of deciding, by a second radio base station (HeNB#1), a method for performing a handover of a mobile station from a cell subordinate to the second radio base station (HeNB#1) to a cell subordinate to a first radio base station (HeNB#2) on the basis of registered-group identification information and an access mode of the cell subordinate to the first radio base station (HeNB#2), wherein in the step, the second radio base station (HeNB#1) considers an X2 handover as the method for performing the handover, when the registered-group identification information of the cell subordinate to the first radio base station (HeNB#2) is the same as registered-group identification information of the cell subordinate to the second radio base station (HeNB#1) and when the access mode of the cell subordinate to the first radio base station (HeNB#2) is "Closed", and in the step, the second radio base station (HeNB#1) considers an X2 handover as the method for performing the handover, when the registered-group identification information of the cell subordinate to the first radio base station (HeNB#2) is the same as registered-group identification information of the cell subordinate to the second radio base station (HeNB#1) and when the access mode of the cell subordinate to the first radio base station (HeNB#2) is "Hybrid".
A sterile hand wrap (800, 2800) for attaching a patient's arm to a sterile clip (700, 2700), the sterile clip (700, 2700) having a snap feature (706, 2706) for connection to a sterile hand connection device, the sterile clip (700, 2700) for attaching to a sterile hand connection device of a surgical arm positioning system, the sterile hand wrap (800, 2800) comprising a foldable sheet (802, 2802) having an interior side (804, 2804) and an exterior side (806, 2806), the interior side (804, 2804) comprising a foam material, the foldable sheet (802, 2802) comprising: a wrist portion (808, 2808) situated at a first edge (816, 2816) of the sheet (802, 2802); a first clip cover portion (810, 2810) extending from the wrist portion (808, 2808); a forearm portion (814, 2814) situated at a second edge (818, 2818) of the sheet (802, 2802); and a second clip cover portion (812, 2812) extending from the forearm portion (814, 2814), wherein the first clip cover portion (810, 2810) is coupled to the second clip cover portion (812, 2812) by a hinge portion (820, 2820) situated between the first clip cover portion (810, 2810) and the second clip cover portion (812, 2812), wherein the wrist portion (808, 2808) has at least one wrist strap (826, 828, 2826, 2828) for wrapping around a patient's wrist, the at least one wrist strap (826, 828, 2826, 2828) having a wrist strap fastener, and wherein the hinge portion (820, 2820) has a snap feature receiving opening for receiving the snap feature (706, 2706), the snap feature receiving opening comprising a perforation (822, 2822).
An assembly formed by a turbine nozzle or a compressor diffuser for a turbine engine and by a metal abradable material support ring, the turbine nozzle or compressor diffuser comprising a plurality of sectors (12; 412), each having an inner platform (14; 414), an outer platform (16; 416), and airfoils (18; 418) extending between the inner platform and the outer platform and secured thereto, and the abradable material support ring (50; 450) being carried by the inner platforms of the sectors on the insides of the inner platforms, the assembly being characterized in that: the nozzle or diffuser sectors are made of ceramic matrix composite material; the abradable material support ring (50; 450) is made of sectors, each presenting an upstream attachment tab (55a; 455a) and a downstream attachment tab (55b; 455b) extending outwards; the inner platforms (14; 414) of the nozzle or diffuser sectors each present, on the inside, an upstream hook (15a; 415a) and a downstream hook (15b; 415b) extending inwards; and the ring supporting the abradable material is supported by the nozzle or the diffuser by mutually engaging without fastening together the end portions of the upstream attachment tabs and the upstream hooks and by mutually engaging without fastening together the end portions of the downstream attachment tabs and the downstream hooks. the nozzle or diffuser sectors are made of ceramic matrix composite material; the abradable material support ring (50; 450) is made of sectors, each presenting an upstream attachment tab (55a; 455a) and a downstream attachment tab (55b; 455b) extending outwards; the inner platforms (14; 414) of the nozzle or diffuser sectors each present, on the inside, an upstream hook (15a; 415a) and a downstream hook (15b; 415b) extending inwards; and the ring supporting the abradable material is supported by the nozzle or the diffuser by mutually engaging without fastening together the end portions of the upstream attachment tabs and the upstream hooks and by mutually engaging without fastening together the end portions of the downstream attachment tabs and the downstream hooks.
Process for preparing polyether carbonate polyols, comprising the step of reaction of alkylene oxide with carbon dioxide in the presence of an H-functional starter compound and double metal cyanide catalyst, characterized in that the process comprises the following steps: (α) optionally, in a first reactor, pretreating the double metal cyanide catalyst (DMC catalyst) at a temperature of 50 to 200°C and/or reduced pressure (absolute) of 10 mbar to 800 mbar, (β) in a first reactor, contacting the double metal cyanide catalyst and suspension medium with alkylene oxide to obtain a first reaction mixture; and (γ) continuously adding the first reaction mixture, alkylene oxide, carbon dioxide and optionally H-functional starter compound to a second reactor, wherein, in step (β), the suspension medium used is at least one H-functional starter compound selected from the group consisting of polyether polyols, polycarbonate polyols, polyester carbonate polyols, polyether ester carbonate polyols and polyether carbonate polyols, wherein these H-functional starter compounds each have a hydroxyl number in the range from 3.0 mg KOH/g to 1000 mg KOH/g, and wherein reaction products formed in step (γ) are withdrawn continuously from the second reactor. (α) optionally, in a first reactor, pretreating the double metal cyanide catalyst (DMC catalyst) at a temperature of 50 to 200°C and/or reduced pressure (absolute) of 10 mbar to 800 mbar, (β) in a first reactor, contacting the double metal cyanide catalyst and suspension medium with alkylene oxide to obtain a first reaction mixture; and (γ) continuously adding the first reaction mixture, alkylene oxide, carbon dioxide and optionally H-functional starter compound to a second reactor,
A method of increasing the yield of a crop plant comprising the step of applying an endophyte inoculant composition comprising a vegetative or conidial phase of Clonostachys rosea strain 88-710 in admixture with a rye-based natural emulsifier to a crop or locus of a crop, in an amount effective to achieve colonization and to increase the yield thereof wherein the endophyte inoculant composition comprises 10 4 to 10 12 CFUs/gram of said composition.
A nozzle cleaning method for cleaning a dispensing nozzle using a nozzle cleaning device including a storage tank and an overflow tank, the nozzle cleaning method comprising the steps of: cleaning an inner wall surface of the dispensing nozzle by discharging a liquid for preload including a sample from the dispensing nozzle; supplying a cleaning liquid to the storage tank; controlling the nozzle cleaning device such that the liquid for preload including the sample discharged from the dispensing nozzle reaches the storage tank, while the cleaning liquid is flowing from the storage tank to the overflow tank; and cleaning an outer wall surface of the dispensing nozzle by inserting the dispensing nozzle into an opening portion of the storage tank, wherein the nozzle cleaning device is controlled such that the liquid for preload including the sample discharged from the dispensing nozzle starts reaching the storage tank after the cleaning liquid flows from the storage tank to the overflow tank and before the dispensing nozzle is inserted into the opening portion of the storage tank, characterized in that the method further comprises the step of: adjusting a lowering speed of the dispensing nozzle and an amount of cleaning liquid to be overflowed, such that the sample attached to the dispensing nozzle is overflowed together with the cleaning liquid after cleaning, without diffusing. cleaning an inner wall surface of the dispensing nozzle by discharging a liquid for preload including a sample from the dispensing nozzle; supplying a cleaning liquid to the storage tank; controlling the nozzle cleaning device such that the liquid for preload including the sample discharged from the dispensing nozzle reaches the storage tank, while the cleaning liquid is flowing from the storage tank to the overflow tank; and cleaning an outer wall surface of the dispensing nozzle by inserting the dispensing nozzle into an opening portion of the storage tank, wherein the nozzle cleaning device is controlled such that the liquid for preload including the sample discharged from the dispensing nozzle starts reaching the storage tank after the cleaning liquid flows from the storage tank to the overflow tank and before the dispensing nozzle is inserted into the opening portion of the storage tank, characterized in that the method further comprises the step of: adjusting a lowering speed of the dispensing nozzle and an amount of cleaning liquid to be overflowed, such that the sample attached to the dispensing nozzle is overflowed together with the cleaning liquid after cleaning, without diffusing.
An emergency unlocking device for a motorcycle comprising: a smart module unit including an operation knob of an ignition switch unit that turns ON/OFF a power supply of a motorcycle, a lid open mechanism to open lids (16, 25) provided in the vehicle, and a lid open knob lock mechanism to lock operation of the lid open knob that actuates the lid open mechanism according to a position of the operation knob, and configured so that a turning operation of the operation knob is permitted according to electronic authentication between a vehicle-side control unit and an electronic key, wherein an emergency unlock mechanism that can directly operate the lid open mechanism by using an emergency key separated and independent from the electronic key in a state where operation of the lid open knob is locked is provided,_wherein the emergency unlock mechanism is a key cylinder that is turned by magnet key at a magnet key engagement portion,, and transmits the turning operation to other components, wherein the emergency unlock mechanism pulls cables (27, 28) to open the lids (16, 25) by turning the lid open mechanism along with the turning operation of the emergency unlock mechanism, wherein the key cylinder is provided with an operation arm extending outward in a radial direction and an engagement plate extending in a rotation axis direction from the operating arm, the engagement plate being adapted to engage with a first swing body, wherein, when turning the key cylinder, the engagement plate is adapted to swing the first swing body such that a cable is pulled, wherein a turning shaft of key cylinder is disposed coaxially with a swing shaft of the lid open mechanism directed in the vehicle width direction, the smart module unit in which, in a configuration further being adapted such that the lid open knob is unlocked in conjunction with a turning operation of operation knob to an ON position, the lid open mechanism can be swung by using emergency key, including in a case where the operation knob cannot be turned since electronic authentication with the electronic key is impossible.
A fan comprising the following features, wherein the words top, bottom and lateral refer to a position of the fan in which its rotation axis is vertical: a housing having a compartment formed inside, and at least one lateral air inlet and at least one lateral air outlet both penetrating through the inner and outer surfaces of the housing and communicating with the compartment; and a motor mounted inside the compartment of the housing and having a stator and an impeller, with the impeller rotatably coupled to the stator and being rotatable about the rotation axis thereof, wherein the impeller further contains a hub and a plurality of blades mounted to a top face of the hub, with each blade having a first end and a second end in the radial direction of the impeller opposite to each other, with the first end of each blade facing outwards, and with the second ends of the blades defining an airflow-area, and the housing includes a support portion, a cover portion and a lateral wall portion arranged between the support and cover portions (3a and 3b), with the support portion, the cover portion and the lateral wall portion surrounding the compartment, with the cover portion facing the top face of the hub, with each blade axially extending toward the cover portion and extending over the top face of the hub, and with the first end of each blade facing the lateral wall portion, wherein the hub comprises a peripheral wall (421 b) extending from a bottom face of the hub in an axial direction, wherein the stator is received in a space surrounded by the peripheral wall, wherein each blade radially extends toward the lateral wall portion and extends over the hub in the radial direction of the impeller, the fan being characterized in that each blade extends beyond the peripheral wall of the hub both in the radially outer direction and in the radially inner direction of the impeller, and in that a radial distance between the second end of each blade and the peripheral wall of the hub is larger than a radial distance between the first end of each blade and the peripheral wall of the hub. a housing having a compartment formed inside, and at least one lateral air inlet and at least one lateral air outlet both penetrating through the inner and outer surfaces of the housing and communicating with the compartment; and
Method of joining a solid part and a polymer, the method comprising the steps of: - attaching a primer layer with a predetermined surface chemistry, density and thickness covalently to at least a part of a surface of the solid part, the primer layer having a surface density of 0.1-100 x 10 -10 mol per square centimeter and a thickness of 1-1000 nanometers, - polymerizing second molecules onto the primer layer so that the surface is at least partly covered with surface immobilized polymer brushes, the step of polymerizing having a duration resulting in a predefined average length and/or average density of the polymer brushes, - bringing the surface with the polymer brushes into contact with the polymer so that an interface is obtained comprising the surface, the primer, the polymer brushes and a part of the polymer adjacent to the primer, - wherein a predetermined temperature profile is applied at least to the interface, and/or - wherein a solvent is applied to the polymer brushes and/or to the polymer prior to the step of bringing the surface with the polymer brushes into contact with the polymer, so that the polymer brushes melt or soften and entangle with melted or softened polymer so that the solid part and the polymer remain joined after cooling. - attaching a primer layer with a predetermined surface chemistry, density and thickness covalently to at least a part of a surface of the solid part, the primer layer having a surface density of 0.1-100 x 10 -10 mol per square centimeter and a thickness of 1-1000 nanometers, - polymerizing second molecules onto the primer layer so that the surface is at least partly covered with surface immobilized polymer brushes, the step of polymerizing having a duration resulting in a predefined average length and/or average density of the polymer brushes, - bringing the surface with the polymer brushes into contact with the polymer so that an interface is obtained comprising the surface, the primer, the polymer brushes and a part of the polymer adjacent to the primer, - wherein a predetermined temperature profile is applied at least to the interface, and/or - wherein a solvent is applied to the polymer brushes and/or to the polymer prior to the step of bringing the surface with the polymer brushes into contact with the polymer,