mhurhangee/ep-ind-claims huggingface dataset:
A method for recovering a called service of a user terminal, comprising: receiving (S201'), by a proxy call session control function, P-CSCF, a called request of the user terminal from a servicing call session control function, S-CSCF, or from an interconnection border control function, IBCF; determining (S202'), by the P-CSCF when receiving the called request, that no registration data of a called user is stored; and sending (S203'), by the P-CSCF, to a policy and charging rules function entity that manages the user terminal, a request for triggering the user terminal to re-initiate an IP multimedia sub-system, IMS, registration after determining that no registration data of a called user is stored. receiving (S201'), by a proxy call session control function, P-CSCF, a called request of the user terminal from a servicing call session control function, S-CSCF, or from an interconnection border control function, IBCF; determining (S202'), by the P-CSCF when receiving the called request, that no registration data of a called user is stored; and sending (S203'), by the P-CSCF, to a policy and charging rules function entity that manages the user terminal, a request for triggering the user terminal to re-initiate an IP multimedia sub-system, IMS, registration after determining that no registration data of a called user is stored.
A starter switch for a motor vehicle comprising a stator, a rotor rotatably movable in the stator, a power supply input (+Batt), at least one electrical output which can be activated by at least one contactor during rotation of said rotor, said at least one contactor being movably mounted on a rotary contactor assembly coupled to the rotor and being carried by a slider moving on a slideway of the rotary contactor assembly, said slideway comprising at least two indexing positions (I1, I2), said starting switch being characterized in that the coupling of the rotary contactor assembly and of the rotor is done through a central hole arranged in a cover part, said cover part being disposed between the rotor and the rotary contactor assembly and comprising a second eccentric hole, said slider being provided with a finger which is adapted to follow the inner contour of the second eccentric hole of the cover.
A method comprising controlling a user interface of a mobile communication device having at least one sensor by: storing sensor signals indicative of one or more external conditions; segmenting said sensor signals into a time sequence of sensor data segments; storing an indication of an operation performed by the user during at least one of said sensor data segments; and determining a rule for future operation of the device, the rule corresponding to said sequence of sensor data segments and the operation. storing sensor signals indicative of one or more external conditions; segmenting said sensor signals into a time sequence of sensor data segments; storing an indication of an operation performed by the user during at least one of said sensor data segments; and determining a rule for future operation of the device, the rule corresponding to said sequence of sensor data segments and the operation.
Container comprising a tank and a lid movable between an open position and a closed position, said lid comprising a lower edge lying substantially in a plane and intended to come into contact with an upper flange of the tank when said lid is in the closed position, characterised in that the lid comprises at least one flexible tab extending from the wall (32, 34) of the lid between two notches formed from the lower edge of the lid, and comprising a contact line parallel to the lower edge of the lid, intended to rest on the flange and arranged at a given distance (d) below the plane containing the lower edge of the lid.
Evaluation arrangement for a thermal gas sensor having at least one heater and at least one detector (130, 140), wherein the evaluation arrangement is configured to obtain - information about an amplitude of a detector signal of a first detector, and - information about a first phase difference between a heater signal and the detector signal of the first detector; and wherein the evaluation arrangement is configured to form a combination signal as an intermediate quantity in dependence on the information (210, 220) about the amplitudes of the detector signal and in dependence on the information (210, 220) about the first phase difference, and wherein the evaluation arrangement is configured to determine information about a gas concentration or information about a thermal diffusivity of a fluid on the basis of the combination signal. wherein the evaluation arrangement is configured to obtain - information about an amplitude of a detector signal of a first detector, and - information about a first phase difference between a heater signal and the detector signal of the first detector; and - information about an amplitude of a detector signal of a first detector, and - information about a first phase difference between a heater signal and the detector signal of the first detector; and wherein the evaluation arrangement is configured to form a combination signal as an intermediate quantity in dependence on the information (210, 220) about the amplitudes of the detector signal and in dependence on the information (210, 220) about the first phase difference, and wherein the evaluation arrangement is configured to determine information about a gas concentration or information about a thermal diffusivity of a fluid on the basis of the combination signal.
Generic and modular electronic detection device, including: • a mechanical actuator linked to a target through a front face of a panel; and • a plurality of position sensors (41, 42, 43) for detecting the position of said target that are linked to a printed circuit board; said mechanical actuator is a switch button having two or three positions and is characterized in that: • said target is positioned between said panel and said printed circuit board; and • said target being mechanically decoupled from said plurality of position sensors (41, 42, 43). • a mechanical actuator linked to a target through a front face of a panel; and • a plurality of position sensors (41, 42, 43) for detecting the position of said target that are linked to a printed circuit board; • said target is positioned between said panel and said printed circuit board; and • said target being mechanically decoupled from said plurality of position sensors (41, 42, 43).
A method of preparing a powdered resin filler, comprising: a) combining a thermosetting ethylenically-unsaturated curable composition, a surfactant, a curing agent and a hydrophilic resin modifier to form a resin blend composition, wherein the hydrophilic resin modifier is hydrophilic fumed silica; b) dispersing the resin blend composition in an aqueous medium to form an oil-in-water emulsion or dispersion; c) curing the oil-in-water emulsion or dispersion to form a particle slurry; and d) drying the particle slurry to a powder form comprising resin particles having a mean particle size of 1 to 20 μm. a) combining a thermosetting ethylenically-unsaturated curable composition, a surfactant, a curing agent and a hydrophilic resin modifier to form a resin blend composition, wherein the hydrophilic resin modifier is hydrophilic fumed silica; b) dispersing the resin blend composition in an aqueous medium to form an oil-in-water emulsion or dispersion; c) curing the oil-in-water emulsion or dispersion to form a particle slurry; and d) drying the particle slurry to a powder form comprising resin particles having a mean particle size of 1 to 20 μm.
Wound dressing (10, 100, 200, 300, 400) comprising an absorbent layer (12, 102, 202), such as a polyurethane foam layer, with an upper side (14, 104, 204) which is covered at least in some areas with a protective layer (16, 106, 206), such as a semi-occlusive polyurethane film, and with an underside (18, 108, 208), which is covered preferably with an adhesive layer (20, 210, 302), such as an adhesive silicone layer, wherein at least one incision (26, 116, 216) and/or at least one perforated dividing/tearing line (28, 118, 218) is provided in the absorbent layer (12, 102, 202) to form at least one segment (30, 32, 34, 36; 120, 122, 124, 126; 220, 222, 224, 226) separable without tools from said absorbent layer (12, 102, 202), and said absorbent layer (12, 102, 202) is sealable water-tight and bacteria-proof after separation of at least one segment (30, 32, 34, 36; 120, 122, 124, 126; 220, 222, 224, 226) from the layer by means of a protruding adhesive section (40, 130, 234) extending from the protective layer (16, 106, 206) with simultaneous covering of the at least one incision (26, 116, 216), of the at least one perforated dividing/tearing line (28, 118, 218) and/or of at least one segment (30, 32, 34, 36; 120, 122, 124, 126; 220, 222, 224, 226) remaining in the layer.
A method of forming a smooth edge on an article made of a thermoplastic material, the method comprising forming a deflectable flange in the thermoplastic material, the deflectable flange including a peripheral edge of the thermoplastic material at the peripheral end of a peripheral flange; the peripheral flange connected by an elbow to a spacer and extending peripherally beyond the spacer by a peripheral flange distance; and the spacer connected by a bend region to the body by an extension, the bend region defining an approximately right angle between the spacer and the extension; characterised by deflecting the bend region of the deflectable flange to displace the peripheral edge from the periphery of the article; heat-softening the bend region while it is deflected; and re-hardening the bend region while it remains deflected, yielding a smooth edge on the article in which the peripheral edge is deflected away from the periphery of the article. forming a deflectable flange in the thermoplastic material, the deflectable flange including a peripheral edge of the thermoplastic material at the peripheral end of a peripheral flange; the peripheral flange connected by an elbow to a spacer and extending peripherally beyond the spacer by a peripheral flange distance; and the spacer connected by a bend region to the body by an extension, the bend region defining an approximately right angle between the spacer and the extension; a peripheral edge of the thermoplastic material at the peripheral end of a peripheral flange; the peripheral flange connected by an elbow to a spacer and extending peripherally beyond the spacer by a peripheral flange distance; and the spacer connected by a bend region to the body by an extension, the bend region defining an approximately right angle between the spacer and the extension; characterised by deflecting the bend region of the deflectable flange to displace the peripheral edge from the periphery of the article; heat-softening the bend region while it is deflected; and re-hardening the bend region while it remains deflected, yielding a smooth edge on the article in which the peripheral edge is deflected away from the periphery of the article.
An information processing system including a plurality of application programs and a plurality of portable information processing apparatuses (1, 2, 3) capable of selectively executing the application programs, wherein each of said information processing apparatuses includes a communication unit (38, 62) for wireless communication with another information processing apparatus, and is characterized by a memory storing in a first area data usable by at least one application program among said plurality of application programs, as supply data to another information processing apparatus, wherein said data is obtained or formed while executing the at least one application program, and a data transmission/reception control unit, for transmitting the supply data stored in said memory to said another information processing apparatus and receiving supply data stored in said another information processing apparatus, using said communication unit, even when said application program is not being executed.
Support structure for attaching units in the engine compartment of a vehicle, comprising a support unit having mounting elements for attaching the units and coupling elements for connecting to the vehicle, in particular in the region of the engine, which support unit is provided with stiffening structures and/or reinforcing struts which are designed as rib-like molded parts, characterized in that the support unit has a support platform which is made of flat, molded material and into which the rib-like reinforcing struts are molded, and in that the stiffening structures are designed as structures that are three-dimensionally molded in the support platform of the support unit and/or as tubular struts.
An interface for machine gun or sub-machine gun, able to be fixed on a machine gun or sub-machine gun and to be positioned between said gun and an optical device, said interface comprising a longitudinal median plane XX' and • a first portion (2, 3, 4, 30, 31, 32, 33, 34) able to be fixed on a machine gun or sub-machine gun, • a second portion (6, 7, 35) movable with respect to the first portion, • an upper portion (8, 36) comprising means (9, 10, 70, 71, 72, 73, 74, 75, 76) able to allow the fixing, directly or indirectly, of a telescope or a camera, • means (5, 50, 52, 54, 56) for damping the movement of the second portion (6, 7, 35) with respect to the first portion (2, 3, 4, 30, 31, 32, 33, 34), wherein the damping means (5, 50, 52, 54, 56) comprise at least a first and a second damper (50, 52, 54, 56), and the first and second portions are made integral by a rail longitudinally arranged on the first portion and by a first sliding piece-forming assembly that the first portion comprises and which is able to cooperate with said rail to form a slide, the interface being characterized by the fact that one of the first and second dampers (50, 52, 54, 56) is placed on one side of the longitudinal median plane and between the first portion and the second portion, and the other damper (50, 52, 54, 56) is placed on the other side of the longitudinal median plane XX' and between the first portion (2, 3, 4, 30, 31, 32, 33, 34) and the second portion (6, 7, 35), wherein the first and second dampers (50, 52, 54, 56) are mounted symetrically and in parallel with each other, laterally eccentric on either side of the rail and of the lateral sides (16, 19, 22, 24) of the first (2, 3, 4, 30, 31, 32, 33, 34) and second (6, 7, 35) portions. • a first portion (2, 3, 4, 30, 31, 32, 33, 34) able to be fixed on a machine gun or sub-machine gun, • a second portion (6, 7, 35) movable with respect to the first portion, • an upper portion (8, 36) comprising means (9, 10, 70, 71, 72, 73, 74, 75, 76) able to allow the fixing, directly or indirectly, of a telescope or a camera, • means (5, 50, 52, 54, 56) for damping the movement of the second portion (6, 7, 35) with respect to the first portion (2, 3, 4, 30, 31, 32, 33, 34),
A ship (1, 101), in particular a cargo ship, having a lifting device (10, 110) for loading and unloading the ship (1, 101), wherein the lifting device (10, 110) has a port-side framework (11, 111), a starboard-side framework (13, 113), a first arm, extending between the frameworks and movable towards the bow and towards the stern, and a first crane, arranged on the first arm and movable starboardwards and portwards, characterized in that the first arm is movable to and fro between a first orientation transverse to the keel line of the ship (1, 101) and a second orientation at an incline to the first orientation.
An antimicrobial composition comprising: a solution comprising hydrated copper sulfate in water; and an equimolar amount of a zinc salt in solution; a basic ammonium salt added to the solution to generate an insoluble a copper-zinc-ammonium complex; and at least one water soluble acid selected from the group consisting of sulfuric, hydrochloric, phosphoric and phosphorous acids added to the solution to solubilize the copper-zinc-ammonium complex and to control the pH of the clear blue acid-solubilized copper-zinc-ammonium solution thus formed. a solution comprising hydrated copper sulfate in water; and an equimolar amount of a zinc salt in solution; a basic ammonium salt added to the solution to generate an insoluble a copper-zinc-ammonium complex; and at least one water soluble acid selected from the group consisting of sulfuric, hydrochloric, phosphoric and phosphorous acids added to the solution to solubilize the copper-zinc-ammonium complex and to control the pH of the clear blue acid-solubilized copper-zinc-ammonium solution thus formed.
Light module, notably for a motor vehicle, comprising: - a first light source of the semiconductor type; - a second surface light source of the organic light-emitting diode type suitable for reflecting the light rays emitted by the first light source in order to form a light beam along an optical axis of the module; characterized in that it further comprises: a collimator comprising an input face (12 2) deflecting a first time the rays emitted by the first light source so as to render them less divergent and facets (12 3) forming an output face deflecting the rays a second time, the light rays emitted by the first light source being deflected by the collimator in a main direction so that - the deflected light rays meet the second light source with a non-zero angle of incidence β; - the rays are deviated a second time so as to be directed toward a portion of the second light source which is close to the optical axis of the light module. - a first light source of the semiconductor type; - a second surface light source of the organic light-emitting diode type suitable for reflecting the light rays emitted by the first light source in order to form a light beam along an optical axis of the module; - the deflected light rays meet the second light source with a non-zero angle of incidence β; - the rays are deviated a second time so as to be directed toward a portion of the second light source which is close to the optical axis of the light module.
A self-moving device comprising: a main body; downward-looking sensors, the number of which is two or more, and all of which are installed at the bottom of the main body; and a control module, which is installed within the main body and is connected to the downward-looking sensors, wherein the control module controls actions of the main body according to the number of suspending signals sent from the downward-looking sensors characterized in that the control module controls the main body to turn when there is only one downward-looking sensor sending the suspending signal; and the control module controls the main body to get into an operation interrupted state, when there are two or more downward-looking sensors sending the suspending signals. a main body; downward-looking sensors, the number of which is two or more, and all of which are installed at the bottom of the main body; and a control module, which is installed within the main body and is connected to the downward-looking sensors, wherein the control module controls actions of the main body according to the number of suspending signals sent from the downward-looking sensors the control module controls the main body to turn when there is only one downward-looking sensor sending the suspending signal; and the control module controls the main body to get into an operation interrupted state, when there are two or more downward-looking sensors sending the suspending signals.
A method for operating a blast furnace, the method comprising: providing a triple tube lance for injecting reducing agents into the blast furnace via a tuyere; the triple tube lance comprising an inner tube lance, an intermediate tube lance and an outer tube lance, the triple tube lance having an innermost tube, a second tube and an outermost tube, the inner tube lance being an inside of an innermost tube of the triple tube lance, the intermediate tube lance being a space between the innermost tube and the second tube from inside and the outer tube lance being a space between the second tube from inside and the outermost tube; and injecting all of a solid reducing agent with a carrier gas, an inflammable reducing agent and a combustion improving gas into the blast furnace through the triple tube lance so that each of these is separately injected through any one of the inner tube lance, the intermediate tube lance and the outer tube lance, characterized in that a ratio of the amount of the inflammable reducing agent or the inflammable reducing agent and the combustion improving gas to the total amount of the gases which are injected through the triple tube lance is from 50 volume% to 95 volume%. providing a triple tube lance for injecting reducing agents into the blast furnace via a tuyere; the triple tube lance comprising an inner tube lance, an intermediate tube lance and an outer tube lance, the triple tube lance having an innermost tube, a second tube and an outermost tube, the inner tube lance being an inside of an innermost tube of the triple tube lance, the intermediate tube lance being a space between the innermost tube and the second tube from inside and the outer tube lance being a space between the second tube from inside and the outermost tube; and injecting all of a solid reducing agent with a carrier gas, an inflammable reducing agent and a combustion improving gas into the blast furnace through the triple tube lance so that each of these is separately injected through any one of the inner tube lance, the intermediate tube lance and the outer tube lance, characterized in that
A method of network slice management performed by a Network Sub-Slice Management Function, NSSMF, the method comprising: receiving, from each of a plurality of network element managers, EMs, availability of the resources under its management; aggregating the availability of the resources of the plurality of EMs to obtain capability exposure information; transmitting the capability exposure information to a Network Slice Management Function, NSMF; and receiving network sub-slice requirements from the NSMF; wherein the network sub-slice requirements satisfy service instance requirements and the capability exposure information; and wherein the capability exposure information includes management capability exposure information and resource capacity exposure information. receiving, from each of a plurality of network element managers, EMs, availability of the resources under its management; aggregating the availability of the resources of the plurality of EMs to obtain capability exposure information; transmitting the capability exposure information to a Network Slice Management Function, NSMF; and receiving network sub-slice requirements from the NSMF; wherein the network sub-slice requirements satisfy service instance requirements and the capability exposure information; and