mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a Mobility Management Entity, MME, node or a S4-SGSN node for dynamic Policy and Charging Rules Function, PCRF, assisted management of network parameters, the method comprising: sending network related parameters to a Policy and Charging Rules Function, PCRF, node through a direct MME/S4-SGSN-PCRF interface; and being characterized in comprising: sending the network related parameters according to a PCRF subscription based on at least one of a cell identification change or a tracking area update upon receiving a request for information from the PCRF node, where the network related parameters are at least one of user location specific parameters or S1-connection status or RAN capabilities or QoS parameters or Subscriber Profile ID, SPID, information element received or stored within said MME node or S4-SGSN node, and wherein the direct MME/S4-SGSN-PCRF interface is established during an initial attach procedure, or a MME or S4-SGSN relocation procedure, or provided when a new connection towards an external data network is established or modified. sending the network related parameters according to a PCRF subscription based on at least one of a cell identification change or a tracking area update upon receiving a request for information from the PCRF node, where the network related parameters are at least one of user location specific parameters or S1-connection status or RAN capabilities or QoS parameters or Subscriber Profile ID, SPID, information element received or stored within said MME node or S4-SGSN node, and wherein the direct MME/S4-SGSN-PCRF interface is established during an initial attach procedure, or a MME or S4-SGSN relocation procedure, or provided when a new connection towards an external data network is established or modified.
Electronic key suitable for being inserted into an electronic cylinder of a lock in order to power and unlock this electronic cylinder, this key comprising: - a body forming a means for the user to grip the key and insert it inside the electronic cylinder, - a movable part capable of moving, relative to the body of the key, between an advanced position and a retracted position when the user moves the key, - a spring which permanently biases the moving part towards its forward position, - an energy recovery device capable of converting the movement of the moving part between its advanced and retracted positions into electrical energy to power the electronic cylinder, - two electrical contacts (45, 46) capable, when the key is inserted in the electronic cylinder, of bearing mechanically on corresponding electrical contacts of the electronic cylinder to establish two wire connections for transmitting electrical energy between the key and the electronic cylinder, which enable the electronic cylinder to be powered from the electrical energy produced by the energy recovery device, characterised in that the movable part comprises a distal end projecting beyond the body of the key when the movable part is in its advanced position, this distal end being able to come to bear directly on an abutment of the electronic cylinder and then, by cooperation of shape with this abutment, to push the movable part back from its advanced position to its retracted position against the return force of the spring as the key is introduced into the electronic cylinder. - a body forming a means for the user to grip the key and insert it inside the electronic cylinder, - a movable part capable of moving, relative to the body of the key, between an advanced position and a retracted position when the user moves the key, - a spring which permanently biases the moving part towards its forward position, - an energy recovery device capable of converting the movement of the moving part between its advanced and retracted positions into electrical energy to power the electronic cylinder, - two electrical contacts (45, 46) capable, when the key is inserted in the electronic cylinder, of bearing mechanically on corresponding electrical contacts of the electronic cylinder to establish two wire connections for transmitting electrical energy between the key and the electronic cylinder, which enable the electronic cylinder to be powered from the electrical energy produced by the energy recovery device, characterised in that the movable part comprises a distal end projecting beyond the body of the key when the movable part is in its advanced position, this distal end being able to come to bear directly on an abutment of the electronic cylinder and then, by cooperation of shape with this abutment, to push the movable part back from its advanced position to its retracted position against the return force of the spring as the key is introduced into the electronic cylinder.
A method, comprising: receiving, at a first access network node serving a first device-to-device area, from a first user equipment in the first device-to-device area, a request for keys for a device-to-device communication between the first user equipment and a second user equipment, wherein the request comprises an identification of a second device-to-device area where the second user equipment is located and being different from the first device-to-device area; identifying a second access network node serving the second device-to-device area based on the identification; sending to the second access network node, a request for a security context of the second user equipment; and receiving from the second access network node the security context for obtaining the keys for the device-to-device communication. receiving, at a first access network node serving a first device-to-device area, from a first user equipment in the first device-to-device area, a request for keys for a device-to-device communication between the first user equipment and a second user equipment, wherein the request comprises an identification of a second device-to-device area where the second user equipment is located and being different from the first device-to-device area; identifying a second access network node serving the second device-to-device area based on the identification; sending to the second access network node, a request for a security context of the second user equipment; and receiving from the second access network node the security context for obtaining the keys for the device-to-device communication.
A jib connection structure being a connection structure between a leading end of a boom and a base end of a jib, the jib connection structure comprising: a jib connection shaft (21, 22) horizontally projecting in both lateral directions of the leading end of the boom; and jib base end engagement portions (31, 32) provided at respective ends of the bifurcated base end of the jib, wherein the jib base end engagement portions (31, 32) are U-shaped into which the jib connection shaft (21, 22) is allowed to be fitted, and include insertion holes (31h, 32h) for insertion of pins (33, 34), the pins (33, 34) being intended for preventing slipping off of the jib connection shaft (21, 22), characterized in that: the insertion hole in one of the jib base end engagement portions (31, 32) is placed laterally outwardly from a U-shaped bottom portion; a line that connects the right and left insertion holes (31h, 32h) is inclined with respect to a plane perpendicular to a central axis of the jib; and a center of gravity of the jib lies between two planes (P2, P3) perpendicular to the line connecting the right and left insertion holes (31h, 32h), the two planes (P2, P3) including the respective insertion holes (31h, 32h). a jib connection shaft (21, 22) horizontally projecting in both lateral directions of the leading end of the boom; and jib base end engagement portions (31, 32) provided at respective ends of the bifurcated base end of the jib, wherein the jib base end engagement portions (31, 32) are U-shaped into which the jib connection shaft (21, 22) is allowed to be fitted, and include insertion holes (31h, 32h) for insertion of pins (33, 34), the pins (33, 34) being intended for preventing slipping off of the jib connection shaft (21, 22), characterized in that: the insertion hole in one of the jib base end engagement portions (31, 32) is placed laterally outwardly from a U-shaped bottom portion; a line that connects the right and left insertion holes (31h, 32h) is inclined with respect to a plane perpendicular to a central axis of the jib; and a center of gravity of the jib lies between two planes (P2, P3) perpendicular to the line connecting the right and left insertion holes (31h, 32h), the two planes (P2, P3) including the respective insertion holes (31h, 32h). the insertion hole in one of the jib base end engagement portions (31, 32) is placed laterally outwardly from a U-shaped bottom portion; a line that connects the right and left insertion holes (31h, 32h) is inclined with respect to a plane perpendicular to a central axis of the jib; and a center of gravity of the jib lies between two planes (P2, P3) perpendicular to the line connecting the right and left insertion holes (31h, 32h), the two planes (P2, P3) including the respective insertion holes (31h, 32h).
A medical device for administering drug therapy to a user over an extended period of use, said medical device comprising: a pump mechanism for administering a drug to the user; first and second delivery cannulas for infusing said drug transdermally into the user at first and second infusion sites; a controller for controlling first and second mechanisms for separately controlling deployment of the first and second cannulas into said user at said first and second infusion sites; the medical device further comprises: a reusable portion housing the pump mechanism, the controller and the first and second mechanisms (108a, 108b) for controlling deployment; and a disposable portion housing a drug reservoir, and characterized in that a flow sensing unit (120, 120a, 120b) is provided for detecting whether the first infusion site is no longer viable by sensing whether the first delivery cannula is blocked or otherwise incapable of delivering a desired flow of drug to the user, and in that the controller is adapted to automatically retract the first delivery cannula from the user and to automatically deploy the second delivery cannula into the user when the flow sensing unit detects that the first infusion site is no longer viable. a pump mechanism for administering a drug to the user; first and second delivery cannulas for infusing said drug transdermally into the user at first and second infusion sites; a controller for controlling first and second mechanisms for separately controlling deployment of the first and second cannulas into said user at said first and second infusion sites; the medical device further comprises: a reusable portion housing the pump mechanism, the controller and the first and second mechanisms (108a, 108b) for controlling deployment; and a disposable portion housing a drug reservoir, and characterized in that a flow sensing unit (120, 120a, 120b) is provided for detecting whether the first infusion site is no longer viable by sensing whether the first delivery cannula is blocked or otherwise incapable of delivering a desired flow of drug to the user, and in that a reusable portion housing the pump mechanism, the controller and the first and second mechanisms (108a, 108b) for controlling deployment; and a disposable portion housing a drug reservoir, and characterized in that a flow sensing unit (120, 120a, 120b) is provided for detecting whether the first infusion site is no longer viable by sensing whether the first delivery cannula is blocked or otherwise incapable of delivering a desired flow of drug to the user, and in that the controller is adapted to automatically retract the first delivery cannula from the user and to automatically deploy the second delivery cannula into the user when the flow sensing unit detects that the first infusion site is no longer viable.
A gas generating composition comprising a fuel and an oxidizing agent, wherein the fuel consists of a combination of a first fuel component being guanidine nitrate and a second fuel component being nitroguanidine, the oxidizing agent is formed by a combination of basic copper nitrate and basic copper carbonate, the first fuel component is contained in an amount of 3 to 25 % by mass, the second fuel component is contained in an amount of 3 to 30% by mass, the basic copper nitrate is contained in an amount of 25 to 65 % by mass, the basic copper carbonate is contained in an amount of 1 to 50 % by mass, the content of copper in the combustion residue of the composition is 93 to 99 % by mass, and the combustion temperature of the composition is less than a temperature obtained by adding 200°C to the melting point of copper contained therein. the fuel consists of a combination of a first fuel component being guanidine nitrate and a second fuel component being nitroguanidine, the oxidizing agent is formed by a combination of basic copper nitrate and basic copper carbonate, the first fuel component is contained in an amount of 3 to 25 % by mass, the second fuel component is contained in an amount of 3 to 30% by mass, the basic copper nitrate is contained in an amount of 25 to 65 % by mass, the basic copper carbonate is contained in an amount of 1 to 50 % by mass, the content of copper in the combustion residue of the composition is 93 to 99 % by mass, and the combustion temperature of the composition is less than a temperature obtained by adding 200°C to the melting point of copper contained therein.
A method for producing molded foam articles that molds molded foam articles continuously, characterized in that the method comprises continuously repeating step 1, step 2, step 3 and step 4 described below in this order, wherein step 1 comprises melting a resin composition that includes a liquid crystal polyester, wherein the amount of the liquid crystal polyester, relative to the total mass of the resin composition, is greater than 30% by mass but not more than 100% by mass, step 2 comprises introducing, with an introduction device, a supercritical fluid that is unreactive, in a supercritical state, with the liquid crystal polyester, and is a gas at normal temperature and normal pressure, into the resin composition in an amount of at least 0.1 parts by mass but not more than 0.3 parts by mass per 100 parts by mass of the liquid crystal polyester, and then melt-kneading a resultant mixture, step 3 comprises injecting the melt-kneaded resin composition containing the supercritical fluid into a mold, and step 4 comprises conducting foaming by lowering at least one of a pressure and a temperature of the supercritical fluid contained in the resin composition to a value below a critical point of the supercritical fluid, and the method further comprises measuring an amount introduced of the supercritical fluid, and performing feedback control of the amount introduced of the supercritical fluid based on a measurement result; and the liquid crystal polyester has a melt tension at a temperature 20°C higher than a flow start temperature of at least 5 mN but not more than 100 mN, wherein the melt tension is measured in accordance with the description. step 1 comprises melting a resin composition that includes a liquid crystal polyester, wherein the amount of the liquid crystal polyester, relative to the total mass of the resin composition, is greater than 30% by mass but not more than 100% by mass, step 2 comprises introducing, with an introduction device, a supercritical fluid that is unreactive, in a supercritical state, with the liquid crystal polyester, and is a gas at normal temperature and normal pressure, into the resin composition in an amount of at least 0.1 parts by mass but not more than 0.3 parts by mass per 100 parts by mass of the liquid crystal polyester, and then melt-kneading a resultant mixture, step 3 comprises injecting the melt-kneaded resin composition containing the supercritical fluid into a mold, and step 4 comprises conducting foaming by lowering at least one of a pressure and a temperature of the supercritical fluid contained in the resin composition to a value below a critical point of the supercritical fluid, and the method further comprises measuring an amount introduced of the supercritical fluid, and performing feedback control of the amount introduced of the supercritical fluid based on a measurement result; and the liquid crystal polyester has a melt tension at a temperature 20°C higher than a flow start temperature of at least 5 mN but not more than 100 mN, wherein the melt tension is measured in accordance with the description.
A computer-implemented method for a content-centric network, CCN, comprising: receiving, by a forwarder, a packet that corresponds to an interest, wherein the interest includes a name; in response to determining that the interest is destined for a stack component of a transport stack including multiple stack components, sending the interest to the destined stack component based on the name for the interest, wherein a CCN transport framework enables an API to dynamically instantiate the transport stack within the CCN transport framework via an API portal instance associated with the transport stack, wherein the transport stack does not require a respective stack component to communicate only with a layer above or below thereof; and in response to determining that the interest is not destined for a stack component of the transport stack, sending the interest to a network element based on the name for the interest, thereby facilitating directly addressing individual components of the transport stack. receiving, by a forwarder, a packet that corresponds to an interest, wherein the interest includes a name; in response to determining that the interest is destined for a stack component of a transport stack including multiple stack components, sending the interest to the destined stack component based on the name for the interest, wherein a CCN transport framework enables an API to dynamically instantiate the transport stack within the CCN transport framework via an API portal instance associated with the transport stack, wherein the transport stack does not require a respective stack component to communicate only with a layer above or below thereof; and in response to determining that the interest is not destined for a stack component of the transport stack, sending the interest to a network element based on the name for the interest, thereby facilitating directly addressing individual components of the transport stack.
A heating device for heating food in a container, in particular milk in a baby bottle, and for estimating an arrival time of a pre-set food temperature, comprising: - a chamber configured to contain a fluid and to receive the container, - a heating unit for heating the fluid in the chamber, - a temperature measuring element for measuring a temperature of the fluid over a time range, characterised in that the heating device further comprises - a calculation unit for determining, for each time point of the time range being a first time point, a temperature difference of the fluid between the first time point and a corresponding second time point of the time range different from the first time point, the calculation unit being configured to compare the determined temperature difference to a predefined amount of temperature, wherein the calculation unit is configured to compare the determined temperature difference in a time period, in which the heating unit is in a deactivated state, and - an estimation unit for estimating an arrival time point, at which a pre-set temperature for the food contained in the container is reached, based on the comparison result of the calculation unit. - a chamber configured to contain a fluid and to receive the container, - a heating unit for heating the fluid in the chamber, - a temperature measuring element for measuring a temperature of the fluid over a time range, - a calculation unit for determining, for each time point of the time range being a first time point, a temperature difference of the fluid between the first time point and a corresponding second time point of the time range different from the first time point, the calculation unit being configured to compare the determined temperature difference to a predefined amount of temperature, wherein the calculation unit is configured to compare the determined temperature difference in a time period, in which the heating unit is in a deactivated state, and - an estimation unit for estimating an arrival time point, at which a pre-set temperature for the food contained in the container is reached, based on the comparison result of the calculation unit.
Device for applying an electric field to a suspension of cells, cell derivatives, organelles, sub-cellular particles and/or vesicles, comprising at least one chamber which comprises at least two segments, each segment comprising at least one first electrode and at least one second electrode, characterized in that the second electrode is a common electrode of at least two segments and the chamber further comprises corresponding recesses of two components which are attached to each other, the aligned recesses forming the chamber, wherein each recess is provided with at least one electrode (4, 5).
A method of making an armored fiber optic cable comprising: providing a fiber optic cable core, the fiber optic cable core including at least one optical fiber capable of conveying optical signals; at least partially enclosing the fiber optic cable core in metallic armor by deforming an armor sheet around the fiber optic cable core; applying particulate matter to an exterior surface of the armor by blowing particulate matter over an exterior surface of the armor; and after applying the particulate matter, extruding a polymer covering over the armor, wherein the particulate matter becomes at least partially embedded in the covering during forming of the covering over the armor. providing a fiber optic cable core, the fiber optic cable core including at least one optical fiber capable of conveying optical signals; at least partially enclosing the fiber optic cable core in metallic armor by deforming an armor sheet around the fiber optic cable core; applying particulate matter to an exterior surface of the armor by blowing particulate matter over an exterior surface of the armor; and after applying the particulate matter, extruding a polymer covering over the armor, wherein the particulate matter becomes at least partially embedded in the covering during forming of the covering over the armor.
A multi-point lock comprising a lock and at least one auxiliary closure element, said lock being provided with a box-like body provided with means for moving at least one component that is preferably selected from a spring latch, at least one sliding latch and at least one actuation rod for external fittings, said auxiliary closure element comprising a shell for accommodating actuators of a respective sliding latch, which are controlled by a respective rod for actuating said lock, said lock and said at least one auxiliary closure element being stably coupled to a respective laminar header, said laminar header being constituted by at least two separate portions (11 and 12), the mutually facing ends of said portions (11 and 12) being adjacent substantially without play, the multi-point lock being characterized in that said portions (11 and 12) are provided with means of stable coupling to said lock and to said at least one auxiliary closure element, and in that the separation line between said ends being defined at at least one component that is selected from the front face of said box-like body and the front wall of said shell, and in that said mutually facing ends of said portions (11 and 12) respectively have a matching shape and a complementary shape that define a single reference point for the locksmith during the step of mounting and coupling said auxiliary assembly to said main assembly, corresponding to the shape mating between said shape and said complementary shape.