mhurhangee/patent-ind-claim-en huggingface dataset:
A magnesium-based composite member (1H to 1J) provided with a through hole (20H to 20J) through which a fastening member for attachment is to be inserted, comprising: a substrate provided with a penetrating portion, and composed of a composite material of a matrix metal which is any of magnesium and a magnesium alloy, and SiC as SiC particles dispersed in said matrix metal, wherein the matrix metal is pure magnesium composed of 99.8 mass% or more Mg and an impurity, or a magnesium alloy composed of an added element and remainder Mg and an impurity; and a receiving portion (223 to 225) attached to said penetrating portion in said substrate, provided with said through hole, and composed of a metal material different from said matrix metal, wherein the receiving portion is one type of metal selected from Fe, Ti, Mo, W, Nb, and Ta or an alloy mainly composed of that metal, said composite material containing said SiC by more than 75 volume %, and said magnesium-based composite member having a coefficient of thermal expansion not lower than 4 ppm/K and not higher than 8 ppm/K and thermal conductivity not lower than 180 W/m•K, wherein: said added element includes at least one of Li, Ag, Ni, Ca, Al, Zn, Mn, Si, Cu and Zr; said added elements are not more than 20 mass% in total, assuming the matrix metal as 100% mass; and said SiC particles have an average particle size not smaller than 1 μm and not larger than 3000 μm. a substrate provided with a penetrating portion, and composed of a composite material of a matrix metal which is any of magnesium and a magnesium alloy, and SiC as SiC particles dispersed in said matrix metal, wherein the matrix metal is pure magnesium composed of 99.8 mass% or more Mg and an impurity, or a magnesium alloy composed of an added element and remainder Mg and an impurity; and a receiving portion (223 to 225) attached to said penetrating portion in said substrate, provided with said through hole, and composed of a metal material different from said matrix metal, wherein the receiving portion is one type of metal selected from Fe, Ti, Mo, W, Nb, and Ta or an alloy mainly composed of that metal, said composite material containing said SiC by more than 75 volume %, and said magnesium-based composite member having a coefficient of thermal expansion not lower than 4 ppm/K and not higher than 8 ppm/K and thermal conductivity not lower than 180 W/m•K, wherein: said added element includes at least one of Li, Ag, Ni, Ca, Al, Zn, Mn, Si, Cu and Zr; said added elements are not more than 20 mass% in total, assuming the matrix metal as 100% mass; and said SiC particles have an average particle size not smaller than 1 μm and not larger than 3000 μm. said added element includes at least one of Li, Ag, Ni, Ca, Al, Zn, Mn, Si, Cu and Zr; said added elements are not more than 20 mass% in total, assuming the matrix metal as 100% mass; and said SiC particles have an average particle size not smaller than 1 μm and not larger than 3000 μm.
An apparatus of a Third Generation Partnership Project, 3GPP, Authentication, Authorization, and Accounting, AAA, server , comprising: one or more processors to obtain wireless local area network, WLAN, Location Information for a WLAN Access Point, AP , via an Authentication and Authorization process for a user equipment, UE , associated with the WLAN AP , and to provide the WLAN Location Information to an evolved Packet Data Gateway, ePDG , via an SWm procedure, wherein the WLAN AP is an untrusted access point and the Authentication and Authorization process comprises an Extensible Authentication Protocol-Authentication Key Agreement, EAP-AKA, authentication process.
A polymer composition, characterized in that the polymer composition comprises, based on its total weight: a) 5 to 40 wt.% of at least one Fischer-Tropsch wax having a melting point >95 °C; b) 30 to 70 wt.% of at least one metallocene-catalyzed polyolefin having a softening point >95 °C and a melt flow index (MFI) (230 °C, 2.16 kg) of ≤1000 and ≥300 g/10 minutes; c) 20 to 40 wt.% of at least one metallocene-catalyzed polyolefin having a softening point >85 °C and a melt flow index (MFI) (230 °C, 2.16 kg) of >1000 g/10 minutes; d) 0 to 40 wt.% of at least one metallocene-catalyzed polyolefin having a softening point >115 °C and a melt flow index (MFI) (230 °C, 2.16 kg) of <300 g/10 minutes; e) 0 to 60 wt.% of at least one polyolefin which is different from b) to d), having a molecular weight M n <140,000 g/mol; and f) 0 to 20 wt.% of additives and additional substances selected from antioxidants, stabilizers, plasticizers and/or other polymers, the polymer composition preferably not being tacky at a temperature of 20 °C to 60 °C, and the softening point being determined by means of the ring-and-ball method according to ISO 4625-1:2004. a) 5 to 40 wt.% of at least one Fischer-Tropsch wax having a melting point >95 °C; b) 30 to 70 wt.% of at least one metallocene-catalyzed polyolefin having a softening point >95 °C and a melt flow index (MFI) (230 °C, 2.16 kg) of ≤1000 and ≥300 g/10 minutes; c) 20 to 40 wt.% of at least one metallocene-catalyzed polyolefin having a softening point >85 °C and a melt flow index (MFI) (230 °C, 2.16 kg) of >1000 g/10 minutes; d) 0 to 40 wt.% of at least one metallocene-catalyzed polyolefin having a softening point >115 °C and a melt flow index (MFI) (230 °C, 2.16 kg) of <300 g/10 minutes; e) 0 to 60 wt.% of at least one polyolefin which is different from b) to d), having a molecular weight M n <140,000 g/mol; and f) 0 to 20 wt.% of additives and additional substances selected from antioxidants, stabilizers, plasticizers and/or other polymers,
A method for maintaining a gas turbine engine installed on an aircraft, the gas turbine engine including an electric machine mounted at least partially inward of a core air flowpath of the gas turbine engine, the method comprising: removing a rotor mount connecting a rotor of the electric machine to a rotary component of the gas turbine engine; removing a stator mount connecting a stator of the electric machine to a stationary component of the gas turbine engine; and removing in situ the electric machine; wherein the gas turbine engine extends between a forward end and an aft end, and wherein the electric machine is positioned at the aft end of the gas turbine engine; wherein removing in situ the electric machine comprises disconnecting the electric machine from an electric communication bus, and wherein disconnecting the electric machine from the electric communication bus comprises electrically disconnecting the electric machine from the electric communication bus at a quick release electric connection such that the electric machine is automatically electrically disconnected through the removal of the electric machine without the use of any tools. removing a rotor mount connecting a rotor of the electric machine to a rotary component of the gas turbine engine; removing a stator mount connecting a stator of the electric machine to a stationary component of the gas turbine engine; and removing in situ the electric machine; wherein the gas turbine engine extends between a forward end and an aft end, and wherein the electric machine is positioned at the aft end of the gas turbine engine; wherein removing in situ the electric machine comprises disconnecting the electric machine from an electric communication bus, and wherein disconnecting the electric machine from the electric communication bus comprises electrically disconnecting the electric machine from the electric communication bus at a quick release electric connection such that the electric machine is automatically electrically disconnected through the removal of the electric machine without the use of any tools.
A process for reducing the content of oxygen, present as copper oxide, in molten metallic copper, which is obtained in a manner known per se and subjected to a copper refining process, wherein - carbon monoxide produced from carbon dioxide in a solid oxide electrolysis cell (SOEC) stack is added during the refining process to remove the oxygen according to the equation CuO + CO -> Cu + CO 2 whereby the purity of the metallic copper is increased, and - the gas from the SOEC stack is compressed and added to the copper melt through an injection system that disperses the reducing gas in small bubbles throughout the copper melt to maximize the gas/solid contact surface. - carbon monoxide produced from carbon dioxide in a solid oxide electrolysis cell (SOEC) stack is added during the refining process to remove the oxygen according to the equation CuO + CO -> Cu + CO 2 whereby the purity of the metallic copper is increased, and - the gas from the SOEC stack is compressed and added to the copper melt through an injection system that disperses the reducing gas in small bubbles throughout the copper melt to maximize the gas/solid contact surface.
An electrical stimulation lead comprising: a stimulation cuff having a length, an exterior surface, and an interior surface that defines a nerve channel having a nerve channel axis; a plurality of electrodes disposed on the interior surface of the cuff, wherein the plurality of electrodes is arranged into a plurality of rows with each row extending parallel to the nerve channel axis, wherein each row comprises at least two of the electrodes; a longitudinal opening extending through the cuff and further extending along an entire length of the cuff, the opening operable to receive a target nerve from a region outside of the cuff to within the nerve channel; at least one slot defined by the stimulation cuff, wherein each of the at least one slot is located between two of the rows of electrodes and has a slot length that extends more than 50% of the entire length of the stimulation cuff and less than the entire length of the stimulation cuff; a mount disposed on the exterior surface of the cuff and radially offset from the nerve channel axis; a lead body having a lead body axis radially offset from the nerve channel axis; and a plurality of conductors extending through the lead body, mount and cuff, with the plurality of conductors electrically coupled to the electrodes. a stimulation cuff having a length, an exterior surface, and an interior surface that defines a nerve channel having a nerve channel axis; a plurality of electrodes disposed on the interior surface of the cuff, wherein the plurality of electrodes is arranged into a plurality of rows with each row extending parallel to the nerve channel axis, wherein each row comprises at least two of the electrodes; a longitudinal opening extending through the cuff and further extending along an entire length of the cuff, the opening operable to receive a target nerve from a region outside of the cuff to within the nerve channel; at least one slot defined by the stimulation cuff, wherein each of the at least one slot is located between two of the rows of electrodes and has a slot length that extends more than 50% of the entire length of the stimulation cuff and less than the entire length of the stimulation cuff; a mount disposed on the exterior surface of the cuff and radially offset from the nerve channel axis; a lead body having a lead body axis radially offset from the nerve channel axis; and a plurality of conductors extending through the lead body, mount and cuff, with the plurality of conductors electrically coupled to the electrodes.
A method for providing access to a lock for provision of a service, the lock being associated with a service consumer , the method being performed in a lock manager and comprising the steps of: receiving a request for access to the lock , the request being based on the service consumer ordering a service requiring access to a physical space which is secured by the lock; sending a first consumer request to a service consumer device , asking whether to grant access to the lock for a service provider agent to provide the service; receiving a first positive consumer response from the service consumer device, indicating that the service consumer allows the service provider agent to access the physical space secured by the lock; generating a temporary credential for the service provider agent; providing the temporary credential to the service provider agent; configuring the lock to accept the temporary credential; receiving a signal indicating that the lock has been locked again; and deactivating , after receiving the signal indicating that the lock has been locked again, the temporary credential in the lock by reconfiguring the lock to revoke the temporary credential. receiving a request for access to the lock , the request being based on the service consumer ordering a service requiring access to a physical space which is secured by the lock; sending a first consumer request to a service consumer device , asking whether to grant access to the lock for a service provider agent to provide the service; receiving a first positive consumer response from the service consumer device, indicating that the service consumer allows the service provider agent to access the physical space secured by the lock; generating a temporary credential for the service provider agent; providing the temporary credential to the service provider agent; configuring the lock to accept the temporary credential; receiving a signal indicating that the lock has been locked again; and deactivating , after receiving the signal indicating that the lock has been locked again, the temporary credential in the lock by reconfiguring the lock to revoke the temporary credential.
A method of producing an optical fiber, comprising: (a) a resin application step of applying an ultraviolet curable resin, onto an outer circumference of an optical fiber; (b) a heating step of heating the ultraviolet curable resin; and (c) a light irradiation step of irradiating the ultraviolet curable resin with ultraviolet light emitted from a semiconductor light emitting element, in a state in which the ultraviolet curable resin is heated, to cure the ultraviolet curable resin into a coating resin; wherein a temperature, at which the ultraviolet curable resin is heated, is equal to or higher than the glass transition temperature of the coating resin; and wherein the light irradiation step is different from the heating step; wherein the glass transition temperature is a temperature at a maximal point of tan δ, which is obtained by the following formula: tan δ = loss elastic modulus E " / storage elastic modulus E ′ wherein the loss elastic modulus E" and the storage elastic modulus E' are obtained by the following method: first, an ultraviolet curable resin before curing is applied onto a glass plate at a thickness of 0.050 mm by a bar coater, and the resultant assembly is irradiated with ultraviolet light to be 1.0 J/cm 2 by a FUSION lamp, whereby the resin is subjected to photopolymerization on the glass plate and cured into a film form; then, this film is cut into a 6 mm-wide strip of films, and viscoelasticity is measured at a heating rate of 5°C/min in the temperature range of -100°C to 150°C, by using a dynamic viscoelasticity measuring instrument RSA3. (a) a resin application step of applying an ultraviolet curable resin, onto an outer circumference of an optical fiber; (b) a heating step of heating the ultraviolet curable resin; and (c) a light irradiation step of irradiating the ultraviolet curable resin with ultraviolet light emitted from a semiconductor light emitting element, in a state in which the ultraviolet curable resin is heated, to cure the ultraviolet curable resin into a coating resin; first, an ultraviolet curable resin before curing is applied onto a glass plate at a thickness of 0.050 mm by a bar coater, and the resultant assembly is irradiated with ultraviolet light to be 1.0 J/cm 2 by a FUSION lamp, whereby the resin is subjected to photopolymerization on the glass plate and cured into a film form; then, this film is cut into a 6 mm-wide strip of films, and viscoelasticity is measured at a heating rate of 5°C/min in the temperature range of -100°C to 150°C, by using a dynamic viscoelasticity measuring instrument RSA3.
Use for stabilizing a protein, of a compound represented by following Formula : wherein X is a hydrogen atom or a methyl group and n is an integer of 3 to 17.
A door actuating unit for actuating a door leaf , comprising a door actuator and a hazard detector , - wherein the door actuator includes an arresting element , - wherein the hazard detector and the arresting element are connected to a control unit , so that the control unit can control the arresting element based on signals from the hazard detector , and - wherein the control unit , by means of a predefined signal from the hazard detector , is adapted to transfer the arresting element into a condition releasing the door actuator , - wherein the door actuating unit includes an energy supply element , in order to supply electric energy to the hazard detector and/or to the arresting unit and/or to the door actuator , characterized in that - the energy supply element is an energy storage, in particular a battery and/or an accumulator and/or a condensator, - the door actuator is electro-hydraulically arrestable and the arresting element is an electrically controllable bi-stable magnetic valve, and - the door actuating unit includes a housing, in which the door actuator , the hazard detector and the energy supply element are disposed. - wherein the door actuator includes an arresting element , - wherein the hazard detector and the arresting element are connected to a control unit , so that the control unit can control the arresting element based on signals from the hazard detector , and - wherein the control unit , by means of a predefined signal from the hazard detector , is adapted to transfer the arresting element into a condition releasing the door actuator , - wherein the door actuating unit includes an energy supply element , in order to supply electric energy to the hazard detector and/or to the arresting unit and/or to the door actuator , - the energy supply element is an energy storage, in particular a battery and/or an accumulator and/or a condensator, - the door actuator is electro-hydraulically arrestable and the arresting element is an electrically controllable bi-stable magnetic valve, and - the door actuating unit includes a housing, in which the door actuator , the hazard detector and the energy supply element are disposed.
Device for the automated isolation and transfer of at least one microscopic sample from a sample carrier to a collection system for automatic downstream analysis, comprising: a selection means for selecting at least one sample located on the sample carrier ; an actuable isolation means for automated isolation of the at least one selected sample; an actuable transfer means which has carrier means for taking up in a defined manner and depositing in a defined manner the at least one selected isolated sample, for automated, defined transferal of the at least one selected, isolated sample from the sample carrier to the collection system ; and a control unit, which is data-linked to the selection means , the isolation means and the transfer means for an automated isolation and transfer process, wherein the transfer means has a suitably configured negative-pressure suction system for automated, defined, contamination-free transferal of the at least one sample to be transferred. a selection means for selecting at least one sample located on the sample carrier ; an actuable isolation means for automated isolation of the at least one selected sample; an actuable transfer means which has carrier means for taking up in a defined manner and depositing in a defined manner the at least one selected isolated sample, for automated, defined transferal of the at least one selected, isolated sample from the sample carrier to the collection system ; and a control unit, which is data-linked to the selection means , the isolation means and the transfer means for an automated isolation and transfer process, wherein the transfer means has a suitably configured negative-pressure suction system for automated, defined, contamination-free transferal of the at least one sample to be transferred.
Hot water cleaning apparatus, comprising a flow-through heater having a heating device , a nozzle device for spraying hot water, a pump which is operatively connected with the flow-through heater for fluid communication therewith, and a connector for a battery device and/or a battery device which provides electrical energy for operating the heating device , wherein the heating device is operated such that the flow-through heater provides hot water without phase transition to steam, characterized by a sensor device which comprises at least one of the following: - a pressure sensor which determines an operating pressure in the fluid; - a temperature sensor which determines a temperature for heated fluid. - a pressure sensor which determines an operating pressure in the fluid; - a temperature sensor which determines a temperature for heated fluid.
A single-piece separator element for separating a fluid medium for treatment into a filtrate and a retentate, said separator element comprising a porous rigid single-piece substrate made out of a single material and presenting firstly, at its periphery, a perimeter wall (2 1 ) that is continuous between an inlet for the fluid medium for treatment at one end of the porous substrate and an outlet for the retentate at the other end of the porous substrate, and secondly, internally, at least one surface covered by at least one separator layer and defining an open structure made up of empty spaces for passing a flow of the fluid medium for treatment in order to recover at the periphery of the porous substrate a filtrate that has passed through the separator layer and the porous substrate, characterized in that the empty spaces for passing the fluid medium for treatment that are defined by the surface of the substrate covered by the separator layer are arranged in the porous substrate so as to create within the porous substrate at least a first flow network (R1, R2, ..., RK) for the fluid medium for treatment, the network comprising at least two interconnected flow circuits (R1 1 , R1 2 , ...) for the fluid medium for treatment between the inlet and the outlet of the porous substrate.