mhurhangee/ep-ind-claims huggingface dataset:
A method for configuring a network slice, comprising: acquiring from a secondary base station, by a master base station, network slice information of the secondary base station, wherein the network slice information of the secondary base station comprises slice capability information and a registration region of the secondary base station; generating, by the master base station, joint network slice information according to network slice information of the master base station and the network slice information of the secondary base station, wherein the network slice information of the master base station comprises slice capability information and a registration region of the master base station and the joint network slice information comprises indication information for indicating that a terminal satisfies a multi-connection condition; and sending, by the master base station, the joint network slice information to a core network element; wherein the master base station has a control plane connection with the core network element, and the secondary base station is in a dual-connected or a multi-connected working mode and has no control plane connection with the core network element; and generating the joint network slice information according to the network slice information of the master base station and the network slice information of the secondary base station comprising: adding, by the master base station, the slice capability information or both the slice capability information and the registration region of the secondary base station into the network slice information of the master base station. acquiring from a secondary base station, by a master base station, network slice information of the secondary base station, wherein the network slice information of the secondary base station comprises slice capability information and a registration region of the secondary base station; generating, by the master base station, joint network slice information according to network slice information of the master base station and the network slice information of the secondary base station, wherein the network slice information of the master base station comprises slice capability information and a registration region of the master base station and the joint network slice information comprises indication information for indicating that a terminal satisfies a multi-connection condition; and sending, by the master base station, the joint network slice information to a core network element; wherein the master base station has a control plane connection with the core network element, and the secondary base station is in a dual-connected or a multi-connected working mode and has no control plane connection with the core network element; and generating the joint network slice information according to the network slice information of the master base station and the network slice information of the secondary base station comprising: adding, by the master base station, the slice capability information or both the slice capability information and the registration region of the secondary base station into the network slice information of the master base station.
An icing condition probe, comprising: a detector that includes a first resistive sensing element that is powered to maintain a regulated detector temperature, the first resistive sensing element providing a probe output voltage that represents detector power consumption as an indication of impending icing conditions in an air flow; a strut that has a strut mount adapted to mount to an aircraft skin and that includes a strut heater; a thermal isolation pedestal that is mounted on the strut and that supports the detector in the air flow, the thermal isolation pedestal including a second resistive sensing element that is powered to maintain a regulated thermal isolation pedestal temperature that is equal to the regulated detector temperature within a regulated temperature range, wherein the thermal isolation pedestal thermally isolates the detector from a temperature variation of the strut. a detector that includes a first resistive sensing element that is powered to maintain a regulated detector temperature, the first resistive sensing element providing a probe output voltage that represents detector power consumption as an indication of impending icing conditions in an air flow; a strut that has a strut mount adapted to mount to an aircraft skin and that includes a strut heater; a thermal isolation pedestal that is mounted on the strut and that supports the detector in the air flow, the thermal isolation pedestal including a second resistive sensing element that is powered to maintain a regulated thermal isolation pedestal temperature that is equal to the regulated detector temperature within a regulated temperature range, wherein the thermal isolation pedestal thermally isolates the detector from a temperature variation of the strut.
A zinc finger-like peptide for use in treating cancer, comprising: at least seven amino acids, wherein the sequence of the at least seven amino acids is represented by SEQ ID NO: 1, wherein the peptide is to be administered via intravenous injection. at least seven amino acids, wherein the sequence of the at least seven amino acids is represented by SEQ ID NO: 1,
A medical device comprising a surface and a plurality of microparticles comprising an active pharmaceutical ingredient and a thermosetting polymer, wherein the microparticles are disposed on said surface in the absence of a continuous phase coating by heating the surface and contacting the microparticles with the surface.
A user equipment (111, 112) comprising: processing circuitry configured to determine to use an extended paging DRX value to increase a paging cycle length to a value greater than a first value, when the user equipment (111, 112) is operating in a network in accordance with a standard of a 3GPP family of standards for LTE, and a second value, when the user equipment (111, 112) is operating in a network in accordance with a standard of the UMTS family of standards; and physical layer circuitry configured to: transmit a non-access stratum message to the network, indicating that the user equipment (111, 112) desires to use the extended paging DRX value; and receive a message from the network that includes an information element indicating whether the network supports the extended paging DRX value; characterized in that the physical layer circuitry is configured to receive a system information block from an evolved NodeB indicating whether the an evolved NodeB supports extended idle mode DRX, the system information block, SIB, being SIB2 for 3GPP LTE systems, SIB1 for 3GPP UMTS systems, or a newly defined SIB. processing circuitry configured to determine to use an extended paging DRX value to increase a paging cycle length to a value greater than a first value, when the user equipment (111, 112) is operating in a network in accordance with a standard of a 3GPP family of standards for LTE, and a second value, when the user equipment (111, 112) is operating in a network in accordance with a standard of the UMTS family of standards; and physical layer circuitry configured to: transmit a non-access stratum message to the network, indicating that the user equipment (111, 112) desires to use the extended paging DRX value; and receive a message from the network that includes an information element indicating whether the network supports the extended paging DRX value; characterized in that the physical layer circuitry is configured to receive a system information block from an evolved NodeB indicating whether the an evolved NodeB supports extended idle mode DRX, the system information block, SIB, being SIB2 for 3GPP LTE systems, SIB1 for 3GPP UMTS systems, or a newly defined SIB. transmit a non-access stratum message to the network, indicating that the user equipment (111, 112) desires to use the extended paging DRX value; and receive a message from the network that includes an information element indicating whether the network supports the extended paging DRX value; characterized in that the physical layer circuitry is configured to receive a system information block from an evolved NodeB indicating whether the an evolved NodeB supports extended idle mode DRX, the system information block, SIB, being SIB2 for 3GPP LTE systems, SIB1 for 3GPP UMTS systems, or a newly defined SIB.
A method of forming a medical device contact element comprising: annealing an elongated rod of Ti-15Mo alloy material to form an annealed rod having a Young's Modulus of less than 93.1 GPa (13.5 Mpsi) and an elastic range or strain of at least 0.7%; forming a contact ring element from the annealed rod, wherein the contact ring element comprises a tubular body and resiliently deflectable elements formed of the Ti-15Mo alloy material, wherein the tubular body defines a cavity configured to receive a lead and wherein the plurality of resiliently deflectable elements extend from the tubular body in to the cavity; and assembling the contact ring element into a medical device. annealing an elongated rod of Ti-15Mo alloy material to form an annealed rod having a Young's Modulus of less than 93.1 GPa (13.5 Mpsi) and an elastic range or strain of at least 0.7%; forming a contact ring element from the annealed rod, wherein the contact ring element comprises a tubular body and resiliently deflectable elements formed of the Ti-15Mo alloy material, wherein the tubular body defines a cavity configured to receive a lead and wherein the plurality of resiliently deflectable elements extend from the tubular body in to the cavity; and assembling the contact ring element into a medical device.
An artificial hip joint stem used to replace a damaged femoral head, the artificial hip joint stem comprising: a stem body comprising a head fixing portion protruding from an upper portion of the stem body to fix a femoral head, an operation space, and a head insertion hole vertically penetrated so as to be connected to the operation space; a screw portion inserted into and rotated in the head insertion hole; a motion converter inserted into the operation space and vertically moved by the screw portion connected of the motion converter; a fixing bracket inserted into the operation space to fix the screw portion such that the screw portion rotates without changing a depth thereof; a variable operation portion inserted into a support surface of the stem body and having a width adjusted in a horizontal direction by operation of the motion converter; characterized by a movable pin which is configured to fix the variable operation portion to the motion converter; and wherein the operation space of the artificial hip joint stem has a horizontally opened upper side of the stem body. a stem body comprising a head fixing portion protruding from an upper portion of the stem body to fix a femoral head, an operation space, and a head insertion hole vertically penetrated so as to be connected to the operation space; a screw portion inserted into and rotated in the head insertion hole; a motion converter inserted into the operation space and vertically moved by the screw portion connected of the motion converter; a fixing bracket inserted into the operation space to fix the screw portion such that the screw portion rotates without changing a depth thereof; a variable operation portion inserted into a support surface of the stem body and having a width adjusted in a horizontal direction by operation of the motion converter; characterized by a movable pin which is configured to fix the variable operation portion to the motion converter; and wherein the operation space of the artificial hip joint stem has a horizontally opened upper side of the stem body.
Method for transmitting data between two communication ports via a telecommunication network, wherein a telecommunication port is selectable using a port identifier, characterized in that the data to be transmitted are, particularly for later verification of the transmission, placed at the beginning of a port identifier that is to be chosen, in the form of a numerical sequence.
High-pressure pump for a fuel injection device of an internal combustion engine, which has a power unit arranged in a housing having a drive shaft, which is provided with at least one cam and is mounted in the housing via an axial bearing, and a plunger assembly, and which has at least one pump piston, which is driven by the rotation of the drive shaft about an axis of rotation via the at least one cam arranged on the drive shaft and the plunger assembly arranged on the at least one pump piston in a stroke movement in a substantially radial direction to the axis of rotation of the drive shaft, wherein the axial bearing is designed as an axial plain bearing (27, 27'), characterized in that at least one first bearing surface (28, 28') is formed on the axial plain bearing (27, 27') in the form of a first annular stop collar (35, 35') on the cam, and in that at least one second bearing surface (29, 29') is formed on the axial plain bearing (27, 27') in the form of a second annular stop collar (36, 36') on the housing, wherein a multiplicity of channels, through which a lubricant can flow during the rotation of the drive shaft, are formed on a surface area of the second bearing surface (29, 29'), wherein a multiplicity of radial bores which are formed substantially parallel to the multiplicity of channels are provided in the second annular stop collar (36, 36').
Combustion chamber wall with a combustion chamber comprising a support structure with a number of heat shields, which are fastened to the support structure with a fastening means, the fastening means comprising a spring device, characterised in that the spring device is connected permanently to the support structure, the spring device consisting at least of a spring positioned in a jacket, the jacket having an external thread, the spring being secured on the side facing away from the combustion chamber by a first captive securing means to prevent it falling out and the spring device having an axial hole on the inside to accommodate the fastening means, the spring being secured on the side facing the combustion chamber by a second captive securing means to prevent it falling out, a securing sheet being positioned on the spring on the side facing the combustion chamber, a disk being positioned on the securing sheet on the side facing the combustion chamber, the disk having a supporting external thread, the external thread, like the sleeve, being able to be screwed into the corresponding internal thread of the support structure, it being possible to dismantle the spring device on the side facing the combustion chamber.
A take-up winding device for the continuous winding of a fiber strand, having a rotatably mounted winding turret with two rotationally drivable winding spindles (3.1, 3.2), which are retained in a projecting manner on the winding turret and which have in each case one winding tube (5.1, 5.2) and one arrester unit (4.1, 4.2), with two severing units (7.1, 7.2), which are retained on the winding turret and which are assigned to the winding spindles (3.1, 3.2), and with a traversing unit, which has a traversing thread guide which can be moved parallel to the winding spindles (3.1, 3.2), wherein the traversing thread guide, for the transfer of the fiber strand from one of the winding spindles (3.1, 3.2) having a wound full package to the other winding spindle (3.1, 3.2), is positionable outside of a traversing stroke, characterized in that both of the severing units (7.1, 7.2) have in each case one knife and one blocking means assigned to the knife, wherein the fiber strand prior to severing is guided by the blocking means and wherein the fiber strand, upon attaining a minimum tensile force, effects an unblocking of the blocking means and can be fed to the knife.
Cosmetic compositions comprising as active principle: a) hyaluronic acid or a biologically acceptable salt thereof, b) an osmoprotector comprising an extract of Helianthus tuberosus in combination with suitable excipients, wherein - component a) is in concentrations comprised between 0.01 and 1% by weight on the total weight of said cosmetic compositions, - component b) is in concentrations comprised between 0.01 and 1% by weight on the total weight of said compositions; - Helianthus tuberosus extract is obtained from roots or tubers of said plant by a digestive process. a) hyaluronic acid or a biologically acceptable salt thereof, b) an osmoprotector comprising an extract of Helianthus tuberosus in combination with suitable excipients, wherein - component a) is in concentrations comprised between 0.01 and 1% by weight on the total weight of said cosmetic compositions, - component b) is in concentrations comprised between 0.01 and 1% by weight on the total weight of said compositions; - Helianthus tuberosus extract is obtained from roots or tubers of said plant by a digestive process. - component a) is in concentrations comprised between 0.01 and 1% by weight on the total weight of said cosmetic compositions, - component b) is in concentrations comprised between 0.01 and 1% by weight on the total weight of said compositions; - Helianthus tuberosus extract is obtained from roots or tubers of said plant by a digestive process.
A switching system for use in a cardiac procedure on a subject comprising: a bidirectional line configured for extending from an electrode at the heart of the subject to an external console; a switch unit for communicating with the bidirectional line, the switch unit comprising a digital to analog signal converter, DAC, in communication with the main line of the bidirectional line, the bidirectional line comprising: a main line, extending through the DAC of the switch unit, for carrying signals comprising acquired signals from the electrode to the external console; and a bypass line, extending outside of the switch unit for carrying signals comprising pacing signals from the external console to the electrode; and a first switch and a second switch each in communication with the switch unit, each of the first switch and the second switch in communication with and switching between the main line and the bypass line, the first switch and the second switch changeable between: 1) a first state, where the main line is enabled for carrying the acquired signals, and the bypass line is disabled, and, 2) a second state, where the bypass line is enabled for carrying the pacing signals and the main line is disabled. a bidirectional line configured for extending from an electrode at the heart of the subject to an external console; a switch unit for communicating with the bidirectional line, the switch unit comprising a digital to analog signal converter, DAC, in communication with the main line of the bidirectional line, the bidirectional line comprising: a main line, extending through the DAC of the switch unit, for carrying signals comprising acquired signals from the electrode to the external console; and a bypass line, extending outside of the switch unit for carrying signals comprising pacing signals from the external console to the electrode; and a main line, extending through the DAC of the switch unit, for carrying signals comprising acquired signals from the electrode to the external console; and a bypass line, extending outside of the switch unit for carrying signals comprising pacing signals from the external console to the electrode; and a first switch and a second switch each in communication with the switch unit, each of the first switch and the second switch in communication with and switching between the main line and the bypass line, the first switch and the second switch changeable between: 1) a first state, where the main line is enabled for carrying the acquired signals, and the bypass line is disabled, and, 2) a second state, where the bypass line is enabled for carrying the pacing signals and the main line is disabled.
Locking and releasing device having two relatively movable parts, characterized by comprising at least one molded shaped body made of a magnetorheological elastomer and a magnetic circuit system having at least one magnetic field generating element, wherein the at least one shaped body is part of the magnetic circuit system and is formed such that it, when applying or changing a magnetic field - either expands so that the relative movement of the parts is blocked by frictional connection and / or positive locking, - or contracts in such a way that, starting from a blockage by frictional connection and / or positive locking, the relative movement of the parts is released. - either expands so that the relative movement of the parts is blocked by frictional connection and / or positive locking, - or contracts in such a way that, starting from a blockage by frictional connection and / or positive locking, the relative movement of the parts is released.
A method of transferring precise absolute time from a satellite to a device, the method comprising: receiving data from a messaging channel wherein the messaging channel changes frequency and changes time slots according to a known pattern predictable from a time parameter value, wherein the data has a frame structure and receiving the data from the messaging channel occurs in response to an acquisition channel being unavailable, wherein the acquisition channel is a fixed known channel and is utilized to provide channel acquisition and hand-off information to user equipment and the messaging channel is distinct from the acquisition channel; using the data to identify the satellite and a position of the satellite; correcting for signal time of flight using the satellite identity and the position; using the data as a time reference to align a receiver clock to the frame structure; with the receiver clock aligned to the frame structure, receiving a precision time signal from the satellite, wherein the precision time signal comprises a periodic repeating code; determining a timing phase of the code; and using the timing phase to determine a precise absolute time. receiving data from a messaging channel wherein the messaging channel changes frequency and changes time slots according to a known pattern predictable from a time parameter value, wherein the data has a frame structure and receiving the data from the messaging channel occurs in response to an acquisition channel being unavailable, wherein the acquisition channel is a fixed known channel and is utilized to provide channel acquisition and hand-off information to user equipment and the messaging channel is distinct from the acquisition channel; using the data to identify the satellite and a position of the satellite; correcting for signal time of flight using the satellite identity and the position; using the data as a time reference to align a receiver clock to the frame structure; with the receiver clock aligned to the frame structure, receiving a precision time signal from the satellite, wherein the precision time signal comprises a periodic repeating code; determining a timing phase of the code; and using the timing phase to determine a precise absolute time.
A method of making a metal-terephthalate polymer from polyester ethylene terephthalate comprising: establishing said metal-terephthalate polymer by reacting said polyester ethylene terephthalate with at least one material selected from the group consisting of polyvalent metal and a metal compound in a first reaction zone which provides a non-aqueous melt environment at temperatures between the melting point of polyester ethylene terephthalates and the temperature at which the metal-terephthalate polymer decomposes. establishing said metal-terephthalate polymer by reacting said polyester ethylene terephthalate with at least one material selected from the group consisting of polyvalent metal and a metal compound in a first reaction zone which provides a non-aqueous melt environment at temperatures between the melting point of polyester ethylene terephthalates and the temperature at which the metal-terephthalate polymer decomposes.