mhurhangee/ep-ind-claims huggingface dataset:
A method of supporting location services, comprising: receiving an identity of a target serving node for a user equipment "UE" at a Location and Routing Function "LRF", wherein the UE performs handover from a first radio access network "RAN" to a second RAN, wherein the UE is served by a source serving node via the first RAN prior to the handover and is served by the target serving node via the second RAN after the handover, wherein the first RAN supports packet-switched calls and the second RAN supports circuit-switched calls, and wherein the identity of the target serving node is received from a source location server supporting location services for the UE prior to the handover; and receiving an identity of the UE from the source location server at the LRF; and determining at the LRF a target location server to support location services for the UE after the handover; and transferring the identity of the UE and the identity of the target serving node from the LRF to the target location server. receiving an identity of a target serving node for a user equipment "UE" at a Location and Routing Function "LRF", wherein the UE performs handover from a first radio access network "RAN" to a second RAN, wherein the UE is served by a source serving node via the first RAN prior to the handover and is served by the target serving node via the second RAN after the handover, wherein the first RAN supports packet-switched calls and the second RAN supports circuit-switched calls, and wherein the identity of the target serving node is received from a source location server supporting location services for the UE prior to the handover; and receiving an identity of the UE from the source location server at the LRF; and determining at the LRF a target location server to support location services for the UE after the handover; and transferring the identity of the UE and the identity of the target serving node from the LRF to the target location server.
A pigmented matte coating composition comprising an aqueous dispersion of a) phosphorus acid functionalized polymer particles; b) TiO 2 particles; c) polymeric organic microspheres; and d) a rheology modifier; wherein the concentration of the phosphorus acid functionalized polymer particles is in the range of from 4 to 35 weight percent, based on the weight of the composition; the average particle size of the phosphorus acid functionalized polymer particles is in the range of from 80 nm to 500 nm; the concentration of the polymeric organic microspheres is in the range of from 4 to 30 weight percent, based on the weight of the composition; the average particle size of the organic microspheres is in the range of from 1 μm to 20 μm; the rheology modifier is present at a concentration in the range of from 0.1 to 5 weight percent, based on the weight of the composition; the TiO 2 is present at a concentration in the range of from 14 to 32 weight percent based on the weight of the composition; at least some of the phosphorus acid functionalized polymer particles are adsorbed to the TiO 2 particles; and the polymeric organic microspheres are not film-forming at ambient temperature.
Method for determining the longitudinal viscosity of a liquid provided in at least one measuring chamber (3, 16, 23) having at least one tube (6, 18, 24), in which the first tube, which is in contact with the liquid, is set into radial vibrations using a piezoelectric effect, wherein the piezoelectric effect of the first tube, which consists of a piezoelectric material, is used to generate the radial vibrations of the first tube, measurement data (Z, V OUT1, V OUT2) for vibration excitation of the liquid by the radial vibrations of the first tube are acquired, and using the measurement data (Z, V OUT1, V OUT2), a damping coefficient (D K) describing the damping on the basis of the liquid is calculated, via which damping coefficient the longitudinal viscosity of the liquid is determined, wherein the liquid is subjected to a vibration excitation in at least one measuring chamber (3, 16, 23) having a lateral surface or lateral surfaces (5, 17, 21, 26) formed exclusively from parallel straight lines.
A blade (7, 14) for a rotor (3, 5) of a hover-capable aircraft, comprising: - a main body delimited by a surface; and - a de-icing system for removing ice; said de-icing system, in turn comprising: - a first layer formed by a shape-memory material activatable so as to alter its shape according to a temperature-associable quantity, which is arranged on the surface of said main body; and - an activation layer, which is adapted to be selectively activatable to generate the amount of heat necessary to activate said first layer; said activation layer being embedded in said main body in a position adjacent to said first layer so that the heat it generates raises, in use, the temperature of said first layer and activates, in use, it; said de-icing system comprising: a second layer, which defines a portion of an outer surface of said blade (7, 14) on which, in use, said ice deposits; said second layer being laid on top of said first layer on the opposite side of said main body, being selectively movable under the action of said first layer so as to exert a mechanical action on said ice and remove it from said blade (7, 14), and being adapted to protect said first layer from external agents; said second layer being elastically movable between: - a first position assumed when said first layer is, in use, activated, where it is at least partly moved away from said main body, so as to remove said ice; and - a second position assumed when said first layer is, in use, deactivated, where it is at least partly in a position closer to said main body with respect to said first position; wherein said first layer is applied directly to a first region of said surface of said main body; said second layer being applied directly to a second region of said surface of said main body separate from said first region: said second layer adhering, in use, to said first layer for its entire extension in said second position. - a main body delimited by a surface; and - a de-icing system for removing ice; - a first layer formed by a shape-memory material activatable so as to alter its shape according to a temperature-associable quantity, which is arranged on the surface of said main body; and - an activation layer, which is adapted to be selectively activatable to generate the amount of heat necessary to activate said first layer; - a first position assumed when said first layer is, in use, activated, where it is at least partly moved away from said main body, so as to remove said ice; and - a second position assumed when said first layer is, in use, deactivated, where it is at least partly in a position closer to said main body with respect to said first position;
An aluminium alloy brazing sheet for fluxfree brazing suitable for brazing to components other than the aluminium alloy brazing sheet itself, the aluminium alloy brazing sheet comprising an aluminium alloy core material covered by an interlayer of an aluminium alloy comprising ≤1.0wt-% Si and 0.1-2.5 wt-% Mg,, the interlayer being covered by an Al-Si braze alloy which comprises 5-14wt-% Si, <0.02 wt-% Mg, 0.01-1.0wt-% Bi, ≤0.8 wt-% Fe, ≤6 wt-% Zn, ≤0.1 wt-% Sn, ≤0.1 wt-% In, ≤0.3 wt-% Cu, ≤0.15 wt-% Mn, ≤0.05 wt-% Sr, and unavoidable impurities each in amounts less than 0.05 wt-% and a total impurity content of less than 0.2 wt-%, the balance consisting of aluminium, and wherein said core material and the interlayer has a higher melting temperature than the braze alloy and wherein the interlayer is sacrificial to the core.
Spectacles, comprising: a frame, temples, and a quick-release connecting assembly, comprising a spring core and a socket, said spring core comprising a sleeve-connected elastic portion and a clamping boss set on said sleeve-connected elastic portion, one end of said socket is opened to form a hole adapted to receive the spring core plugged into and a hole wall surrounding said hole, a clamping slot adapted to receive said clamping boss is formed in said hole wall, said slot determining an abutment edge for abutting the clamping boss, and wherein a push member located in correspondence to said clamping boss is set on the socket at the clamping slot, said sleeve-connected elastic portion being arranged to elastically engage the clamping boss with the abutment edge when the sleeve-connected elastic portion of the spring core is plugged into the hole of the socket, and said push member being arranged to push down and release the clamping boss out of its abutment with the abutment edge of the clamping slot when submitted to an external pressure, characterized in that the push member of said socket is connected to the edge of the clamping slot opposed to the abutment edge with an elastic connecting piece, the elastic connecting piece is made of an elastic leaf which extend substantially over the surface of the clamping slot, and the spring core and the socket of said quick-release connecting assembly are set on said frame and temple, respectively. a frame, temples, and a quick-release connecting assembly, comprising a spring core and a socket, said spring core comprising a sleeve-connected elastic portion and a clamping boss set on said sleeve-connected elastic portion, one end of said socket is opened to form a hole adapted to receive the spring core plugged into and a hole wall surrounding said hole, a clamping slot adapted to receive said clamping boss is formed in said hole wall, said slot determining an abutment edge for abutting the clamping boss, and wherein a push member located in correspondence to said clamping boss is set on the socket at the clamping slot, said sleeve-connected elastic portion being arranged to elastically engage the clamping boss with the abutment edge when the sleeve-connected elastic portion of the spring core is plugged into the hole of the socket, and said push member being arranged to push down and release the clamping boss out of its abutment with the abutment edge of the clamping slot when submitted to an external pressure, characterized in that the push member of said socket is connected to the edge of the clamping slot opposed to the abutment edge with an elastic connecting piece, the elastic connecting piece is made of an elastic leaf which extend substantially over the surface of the clamping slot, and the spring core and the socket of said quick-release connecting assembly are set on said frame and temple, respectively.
A method of hydrolysis of cellulose esters, comprising - providing a solution containing cellulose esters, - adding a hydrotropic agent to the solution containing cellulose esters in an amount of about 0.002 wt-% to about 1 wt-% calculated as 100% pure compound, based on the weight of dry cellulose pulp, - performing hydrolysis of cellulose esters by adding an aqueous solution to the solution containing cellulose esters to provide a mixture containing cellulose and acid(s) derived from cellulose esters, wherein the hydrotropic agent is 3,3'-((2-ethylhexyl)azanediyl)dipropionate. - providing a solution containing cellulose esters, - adding a hydrotropic agent to the solution containing cellulose esters in an amount of about 0.002 wt-% to about 1 wt-% calculated as 100% pure compound, based on the weight of dry cellulose pulp, - performing hydrolysis of cellulose esters by adding an aqueous solution to the solution containing cellulose esters to provide a mixture containing cellulose and acid(s) derived from cellulose esters,
Electronic board comprising at least: - an assembly comprising at least a flexible support and a printed circuit on the flexible support and known as a flexible printed circuit or FPC (11, 12), the FPC comprising at least one contact plate at the surface of the support, and the assembly further comprising at least one stud fixed to the contact plate and configured to establish an electrical connection with an electronic component, the assembly being encapsulated in a resin and laminated between two layers (22a, 22b), and - the electronic component electrically connected to the stud of the assembly, characterized in that the stud has a copper core and at least a nickel coating and/or gold coating. - an assembly comprising at least a flexible support and a printed circuit on the flexible support and known as a flexible printed circuit or FPC (11, 12), the FPC comprising at least one contact plate at the surface of the support, and the assembly further comprising at least one stud fixed to the contact plate and configured to establish an electrical connection with an electronic component, the assembly being encapsulated in a resin and laminated between two layers (22a, 22b), and - the electronic component electrically connected to the stud of the assembly, characterized in that the stud has a copper core and at least a nickel coating and/or gold coating.
An electronic device comprising: a loop type heat pipe including a loop-shaped flow path (15, 13r) in which a working fluid is enclosed; characterised by a first magnet provided to the loop type heat pipe; a heat dissipation plate thermally connectable to the loop type heat pipe; a second magnet provided to the heat dissipation plate and provided to face the first magnet; and a support member that movably supports the heat dissipation plate so that a distance between the loop type heat pipe and the heat dissipation plate can be varied in response to a change in magnetic force of the first magnet. a loop type heat pipe including a loop-shaped flow path (15, 13r) in which a working fluid is enclosed; characterised by a first magnet provided to the loop type heat pipe; a heat dissipation plate thermally connectable to the loop type heat pipe; a second magnet provided to the heat dissipation plate and provided to face the first magnet; and a support member that movably supports the heat dissipation plate so that a distance between the loop type heat pipe and the heat dissipation plate can be varied in response to a change in magnetic force of the first magnet.
A transport pallet made from plastic material comprising an upper deck with the upper deck having a top side with a loading surface for products and goods as well as a bottom side, wherein engagement openings for lifting devices like forks of fork lifts are provided below the upper deck which engagement openings are defined by support bases and/or a pallet base, wherein receivers are configured in the upper deck in which receivers plugs made from a material with a higher friction coefficient than the pallet material are provided, wherein the plugs extend from the top side to the bottom side of the upper deck, protrude in an outward direction with their face ends from the upper deck at their top side and at their bottom side and wherein the plugs are configured conical and taper from the top side to the bottom side of the upper deck, characterized in that the plugs each comprise one or plural clamping rib(s) which extend transversally to the longitudinal direction of the plug, that the receivers each comprise a receiving wall which limits a cone-shaped receiving space and are formed from ribs arranged over the circumference at a distance from one another and separated from one another by slots and in that the clamping rib(s) is/are configured such that it/they apply pressure laterally by way of elastic deformation on the receiver when the plug is inserted into the receiver.
Process for oligomerization of monoolefins in a continuous gas phase using fixed bed reactor, comprising the step of oligomerizing the monoolefins in the presence of a nanocatalyst, the nanocatalyst comprising (i) at least one particulate support selected from Al2O3 and mixtures of Al2O3 and SiO2. (ii) at least one transition metal oxide, wherein the transition metal is selected from Mo and mixtures of Mo and Co the transition metal oxide being supported on the support, wherein the average particle size determined by laser diffraction of the nanocatalyst is from 25-500 nm, the nanocatalyst being obtained by (a) preparing at least one aqueous solution of a water-soluble metal salt of a transition metal, wherein the transition metal is selected from Mo and mixtures of Mo and Co and ultrasonicating the at least one aqueous solution for 1 to 5 hours to obtain a homogeneous solution, (b) adding the at least one ultrasonicated solution to the support having an average particle size determined by laser diffraction of 15-400 nm and ultrasonicating the mixture for 1 to 12 hours to produce a paste, (c) drying the paste and then calcining it initially in an inert atmosphere and finally in an oxidative atmosphere at a temperature from 250 to 600°C for 2 to 12 hours (d) optionally ultrasonicating the catalyst obtained in step (c) under dry conditions. (i) at least one particulate support selected from Al2O3 and mixtures of Al2O3 and SiO2. (ii) at least one transition metal oxide, wherein the transition metal is selected from Mo and mixtures of Mo and Co the transition metal oxide being supported on the support, (a) preparing at least one aqueous solution of a water-soluble metal salt of a transition metal, wherein the transition metal is selected from Mo and mixtures of Mo and Co and ultrasonicating the at least one aqueous solution for 1 to 5 hours to obtain a homogeneous solution, (b) adding the at least one ultrasonicated solution to the support having an average particle size determined by laser diffraction of 15-400 nm and ultrasonicating the mixture for 1 to 12 hours to produce a paste, (c) drying the paste and then calcining it initially in an inert atmosphere and finally in an oxidative atmosphere at a temperature from 250 to 600°C for 2 to 12 hours (d) optionally ultrasonicating the catalyst obtained in step (c) under dry conditions.
Assembly from a first part having a first contact face and from a second part having a second contact face that is capable of bearing on the first contact face of the first part, wherein at least one releasing means for exerting a release force (F A) on at least one of the mutually bearing parts (1, 5) is provided, wherein the first part comprises a first elastomer, and/or the second part comprises a second elastomer, characterized in that the first and/or the second elastomer in the case of mutually bearing, in particular of mutually compressed, parts (1, 5) are/is compressed in a non-uniformly intense manner, and in that the release force (F A) results from a tensile force (F Z) that is directed from the releasing means in the direction perpendicular to the contact faces (4, 6), and in that the first and/or the second part (1, 5) are/is configured so as to introduce the release force (F A) in a non-uniformly distributed manner such that the release procedure is performed in a peeling manner, and such that the tensile force that is exerted by the releasing means in the still adhering elastomer region does not yet act as a release force but supports the de-compression of the elastomer.
A fuel assembly configured to be positioned in a nuclear water reactor, wherein the fuel assembly comprises an upstream end, a downstream end, a flow interspace between the upstream end and the downstream end, a plurality of fuel rods provided in the flow interspace between the upstream end and the downstream end (1 b), the flow interspace being configured to permit a flow of coolant through the fuel assembly along a flow direction from the upstream end to the downstream end in contact with the fuel rods, a filter device configured to catch debris particles in the flow of coolant, wherein the filter device comprises a first filter zone provided in the flow of coolant between the upstream end and the fuel rods, and a second filter zone, wherein the first filter zone and the second filter zone are configured to catch said debris particles, wherein the first filter zone comprises a plurality of passages arranged to guide at least a part of the flow of coolant to pass the first filter zone through the passages towards the downstream end, wherein the second filter zone comprises a plurality of passages arranged to guide at most a part of the flow of coolant to pass the second filter zone through the passages towards the downstream end, wherein the first filter zone has a first filtering efficiency and the second filter zone has a second filtering efficiency, wherein the second filtering efficiency is higher than the first filtering efficiency, and wherein the passages (23, 33) of the first filter zone and the second filter zone are formed by a plurality of sheets (24, 34), which are arranged beside each other and oriented along the flow direction, characterized in that adjacent sheets of the first filter zone are provided at a larger distance from each other than adjacent sheets of the second filter zone.
A bone anchoring device, including: an anchoring element (1, 1', 1") having a shank for anchoring in bone and a head (3, 3',3"), a receiving part (5,) configured to receive the head of the anchoring element in a pivotable manner such that the shank can assume a plurality of angular positions including a predetermined angular position relative to the receiving part, the receiving part having a passage defining a central axis, a pressure member (6, 6') configured to exert pressure onto the head (3, 3', 3") to clamp the head in the receiving part, the pressure member being at least partially arranged in the passage, wherein the head (3, 3', 3") comprises an outer surface portion that defines a first position indication structure configured to engage a second position indication structure of the pressure member; wherein the first position indication structure or the second position indication structure includes a transition between a first curved portion defining a first curvature and a second curved portion defining a second curvature different from the first curvature and wherein when the first position indication structure and the second position indication structure mutually engage and the head is pivoted from one of the plurality of angular positions to the predetermined angular position the transition is passed by the respective other of the second or the first position indication structure to provide an indication of the predetermined angular position of the shank relative to the receiving part. an anchoring element (1, 1', 1") having a shank for anchoring in bone and a head (3, 3',3"), a receiving part (5,) configured to receive the head of the anchoring element in a pivotable manner such that the shank can assume a plurality of angular positions including a predetermined angular position relative to the receiving part, the receiving part having a passage defining a central axis, a pressure member (6, 6') configured to exert pressure onto the head (3, 3', 3") to clamp the head in the receiving part, the pressure member being at least partially arranged in the passage, wherein the head (3, 3', 3") comprises an outer surface portion that defines a first position indication structure configured to engage a second position indication structure of the pressure member; wherein the first position indication structure or the second position indication structure includes a transition between a first curved portion defining a first curvature and a second curved portion defining a second curvature different from the first curvature and wherein when the first position indication structure and the second position indication structure mutually engage and the head is pivoted from one of the plurality of angular positions to the predetermined angular position the transition is passed by the respective other of the second or the first position indication structure to provide an indication of the predetermined angular position of the shank relative to the receiving part.