mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a core network, CN, entity of a wireless communication network, the method comprising: receiving a session establishment request from a wireless terminal through a base station node (gNB); responsive to receiving the session establishment request, determining, based on at least one of an identity of the wireless terminal and/or an identity of the base station node (gNB), that a breakout protocol data unit, PDU, session is to be established for the wireless terminal; responsive to determining that the breakout PDU session is to be established for the wireless terminal, transmitting a request to the base station node (gNB), wherein the request includes an indication that the breakout PDU session is to be established for the wireless terminal to a local area network which has a user plane interface to the base station node (gNB); and providing to the base station node (gNB) a user plane address of the wireless terminal that is used for unicast downlink transmissions to the wireless terminal and/or a multicast address that is used for multicast transmissions to a plurality of wireless terminals. receiving a session establishment request from a wireless terminal through a base station node (gNB); responsive to receiving the session establishment request, determining, based on at least one of an identity of the wireless terminal and/or an identity of the base station node (gNB), that a breakout protocol data unit, PDU, session is to be established for the wireless terminal; responsive to determining that the breakout PDU session is to be established for the wireless terminal, transmitting a request to the base station node (gNB), wherein the request includes an indication that the breakout PDU session is to be established for the wireless terminal to a local area network which has a user plane interface to the base station node (gNB); and providing to the base station node (gNB) a user plane address of the wireless terminal that is used for unicast downlink transmissions to the wireless terminal and/or a multicast address that is used for multicast transmissions to a plurality of wireless terminals.
Mobile liquid tank for a beverage dispensing machine comprising: an insulated tank body for receiving and storing a liquid and heating means arranged in the tank body for heating the liquid, wherein the heating means comprise: - a first heating element for heating up the liquid in the tank to a predetermined temperature, and - a second heating element for maintaining the temperature of the heated liquid in the tank substantially constant, wherein the first heating element is configured to be connectable to an external power source of low voltage and the second heating element is configured to be connectable, separately from the first heating element, to a mobile power source of extra-low voltage (7, 51), such tank being further provided with temperature control sensor means (19, 20) in the tank, wherein the sensor means (19, 20) are connectable to a control unit (8,50) and the measured temperature data received from the temperature control sensor means (19, 20) are used as temperature input for controlling the regulation of the heating means, the heating means being electrically connected to electrical connectors characterized in that the first heating element and the second heating element are connected to separate electrical connectors (25a, 25b) protruding from at least one external wall of the tank for connectability to external electrical connectors, the electrical connectors (25a, 25b) being plug-type connector spatially arranged in parallel. an insulated tank body for receiving and storing a liquid and heating means arranged in the tank body for heating the liquid, wherein the heating means comprise: - a first heating element for heating up the liquid in the tank to a predetermined temperature, and - a second heating element for maintaining the temperature of the heated liquid in the tank substantially constant, - a first heating element for heating up the liquid in the tank to a predetermined temperature, and - a second heating element for maintaining the temperature of the heated liquid in the tank substantially constant, wherein the first heating element is configured to be connectable to an external power source of low voltage and the second heating element is configured to be connectable, separately from the first heating element, to a mobile power source of extra-low voltage (7, 51), such tank being further provided with temperature control sensor means (19, 20) in the tank, wherein the sensor means (19, 20) are connectable to a control unit (8,50) and the measured temperature data received from the temperature control sensor means (19, 20) are used as temperature input for controlling the regulation of the heating means, the heating means being electrically connected to electrical connectors characterized in that the first heating element and the second heating element are connected to separate electrical connectors (25a, 25b) protruding from at least one external wall of the tank for connectability to external electrical connectors, the electrical connectors (25a, 25b) being plug-type connector spatially arranged in parallel.
A crosshead die for use with an extruder, the crosshead die comprising: a body and a cassette received in the body for feeding reinforcement cords through the crosshead die; an inlet formed in the body, the inlet being configured for being in fluid communication with an extruder; an outlet formed in the body; and a flow channel formed in the body, the flow channel extending between the inlet and the outlet, and being bounded by an upper wall, a lower wall, a first side wall having a height, and a second side wall having a heigth, characterized in that the flow channel is formed with a cross section that has or includes a trapezoidal shape with the first side wall and the second side wall being parallel in relation to one another, the upper wall and the lower wall being oblique in relation to one another, and the height of the first side wall being less than the height of the second side wall. a body and a cassette received in the body for feeding reinforcement cords through the crosshead die; an inlet formed in the body, the inlet being configured for being in fluid communication with an extruder; an outlet formed in the body; and a flow channel formed in the body, the flow channel extending between the inlet and the outlet, and being bounded by an upper wall, a lower wall, a first side wall having a height, and a second side wall having a heigth, characterized in that the flow channel is formed with a cross section that has or includes a trapezoidal shape with the first side wall and the second side wall being parallel in relation to one another, the upper wall and the lower wall being oblique in relation to one another, and the height of the first side wall being less than the height of the second side wall.
Use of a chitosan polymer crosslinked with genipin of a general formula 1 wherein a part of substitutents R denotes -CH 2 CH CH 2 N + (CH 3) 3 and the other part of of substitutents R denotes X group with the formula 2 or with the formula 3, and n and m are natural numbers, as a stationary phase in the heparin removal devices for the removal of heparin from blood and physiological liquids of mammals.
A method of coordinating audio reproduction for heterogeneous end devices (130, 132, 133) in heterogeneous first and second networks (102, 103), the method comprising: receiving an audio signal from one of the end devices (130, 132, 133); associating a first timestamp with a first audio stream and a second timestamp with a second audio stream, wherein the first and second timestamps are different, wherein each of the first and second timestamps corresponds to a time that the associated audio stream is to be one or more of transmitted by a base station and reproduced by an end device, and wherein each of the first and second audio streams (144, 145) contains audio information of the received audio signal; and sending the first audio stream to a first end device in the first network and the second audio stream to a second end device in the second network, the first and second timestamps providing timing information such that the audio signal is reproducible by the first and second end devices (132, 133) at a substantially simultaneous time. receiving an audio signal from one of the end devices (130, 132, 133); associating a first timestamp with a first audio stream and a second timestamp with a second audio stream, wherein the first and second timestamps are different, wherein each of the first and second timestamps corresponds to a time that the associated audio stream is to be one or more of transmitted by a base station and reproduced by an end device, and wherein each of the first and second audio streams (144, 145) contains audio information of the received audio signal; and sending the first audio stream to a first end device in the first network and the second audio stream to a second end device in the second network, the first and second timestamps providing timing information such that the audio signal is reproducible by the first and second end devices (132, 133) at a substantially simultaneous time.
Arrangement within a motor vehicle comprising a body side and a body, the arrangement comprising a body side stiffener, such as a stiffener of a front tip of the body side, the stiffener being fastened, on the one hand, to the body and, on the other hand, to the body side, the stiffener having the form of an angle bracket comprising a first wing and a second wing, the second wing of the stiffener comprising a lug, in particular a lug arranged at a distal end of the second wing with respect to the first wing, characterized in that a front tip of the body side comes opposite an upper edge of a front wing on the one hand and opposite a rear edge of a front bonnet on the other hand.
A liquid formulation of a long-lasting oxyntomodulin derivative conjugate, comprising: a pharmacologically active amount of a long-lasting oxyntomodulin derivative conjugate wherein the oxyntomodulin derivative conjugate comprises an oxyntomodulin derivative, which is a physiologically active peptide, comprising the amino acid sequence of any one of SEQ ID NOs: 32, 33, 34, 2-23, or 27-31; an immunoglobulin Fc region; and a non-peptidyl polymer, wherein the non-peptidyl polymer covalently links the oxyntomodulin derivative and the immunoglobulin Fc region, and an albumin-free stabilizer, wherein the stabilizer contains a buffer having a pH ranging from 4.8 to 6.0, one or more sugar alcohols selected from mannitol and sorbitol, and polysorbate 20. a pharmacologically active amount of a long-lasting oxyntomodulin derivative conjugate wherein the oxyntomodulin derivative conjugate comprises an oxyntomodulin derivative, which is a physiologically active peptide, comprising the amino acid sequence of any one of SEQ ID NOs: 32, 33, 34, 2-23, or 27-31; an immunoglobulin Fc region; and a non-peptidyl polymer, wherein the non-peptidyl polymer covalently links the oxyntomodulin derivative and the immunoglobulin Fc region, an oxyntomodulin derivative, which is a physiologically active peptide, comprising the amino acid sequence of any one of SEQ ID NOs: 32, 33, 34, 2-23, or 27-31; an immunoglobulin Fc region; and a non-peptidyl polymer, wherein the non-peptidyl polymer covalently links the oxyntomodulin derivative and the immunoglobulin Fc region, and an albumin-free stabilizer, wherein the stabilizer contains a buffer having a pH ranging from 4.8 to 6.0, one or more sugar alcohols selected from mannitol and sorbitol, and polysorbate 20.
A current to pressure converter, comprising: a housing defining a control port, a supply port, and a drain port fluidly coupled therethrough, characterised in that the CPC further comprises: a digital controller; a 3-way rotary valve configured to alternatively fluidly couple the control port with the drain port, the supply port, or neither the drain port nor the supply port; a rotary actuator operatively coupled to the digital controller and drivably coupled to the 3-way rotary valve; and a pressure transducer in fluid communication with the control port, the pressure transducer being operable to provide a pressure feedback signal to the digital controller; the digital controller being configured to control the pressure supplied by the control port in proportion to an input analog control signal of 4 - 20 mA; and the digital controller being configured to impart an anti-silting impulse to the 3-way rotary valve. a housing defining a control port, a supply port, and a drain port fluidly coupled therethrough, characterised in that the CPC further comprises: a digital controller; a 3-way rotary valve configured to alternatively fluidly couple the control port with the drain port, the supply port, or neither the drain port nor the supply port; a rotary actuator operatively coupled to the digital controller and drivably coupled to the 3-way rotary valve; and a pressure transducer in fluid communication with the control port, the pressure transducer being operable to provide a pressure feedback signal to the digital controller; the digital controller being configured to control the pressure supplied by the control port in proportion to an input analog control signal of 4 - 20 mA; and the digital controller being configured to impart an anti-silting impulse to the 3-way rotary valve. a digital controller; a 3-way rotary valve configured to alternatively fluidly couple the control port with the drain port, the supply port, or neither the drain port nor the supply port; a rotary actuator operatively coupled to the digital controller and drivably coupled to the 3-way rotary valve; and a pressure transducer in fluid communication with the control port, the pressure transducer being operable to provide a pressure feedback signal to the digital controller; the digital controller being configured to control the pressure supplied by the control port in proportion to an input analog control signal of 4 - 20 mA; and the digital controller being configured to impart an anti-silting impulse to the 3-way rotary valve.
A polyolefin-based resin expanded beads molded article obtained by in-mold molding of multi-layered polyolefin-based resin expanded beads each having an polyolefin-based resin expanded core layer and a polyolefin-based resin cover layer covering the polyolefin-based resin expanded core layer, wherein the polyolefin-based resin cover layer comprises a mixture of a polyolefin-based resin, a polymeric antistatic agent which is a block copolymer of a polyether block and a polyolefin block, and an electrically conductive carbon black, wherein a weight ratio (A:B) of the polyolefin-based resin to the polymeric antistatic agent is 99.5:0.5 to 55:45, and the electrically conductive carbon black is present in an amount of 5 to 30 parts by weight per 100 parts by weight of the total of the polyolefin-based resin and the polymeric antistatic agent, and wherein the polyolefin-based resin expanded beads molded article has a surface resistivity of 1×10 5 to 1×10 10 Ω, as measured according to JIS C2170.
A horological component comprising a first opening intended to receive a member when the latter is driven into the first opening, the component comprising an axis (A1; 1A1) centered in the first opening and at least two structures (10; 110) intended to receive the member, each receiving structure comprising: - a receiving element (4b; 14b) intended to come into contact with the member and extending at least substantially orthoradially relative to the axis (A1; 1A1), - a first connecting element (4c; 14c) extending at least substantially radially relative to the axis (A1; 1A1) from a first end of the receiving element, - a second connecting element (4d; 14d) extending at least substantially radially relative to the axis (A1; 1A1) from a second end of the receiving element, - a first elastically deformable element (4a; 14a) extending at least substantially orthoradially relative to the axis (A1; 1A1), and - a second elastically deformable element (4a'; 14a') extending at least substantially orthoradially relative to the axis (A1; 1A1), the first connecting element mechanically connecting the first end of the receiving element to the first elastically deformable element and the second connecting element mechanically connecting the second end of the receiving element to the second elastically deformable element, characterized in that a same elastically deformable element constitutes the first elastically deformable element and the second elastically deformable element of two adjacent receiving structures. - a receiving element (4b; 14b) intended to come into contact with the member and extending at least substantially orthoradially relative to the axis (A1; 1A1), - a first connecting element (4c; 14c) extending at least substantially radially relative to the axis (A1; 1A1) from a first end of the receiving element, - a second connecting element (4d; 14d) extending at least substantially radially relative to the axis (A1; 1A1) from a second end of the receiving element, - a first elastically deformable element (4a; 14a) extending at least substantially orthoradially relative to the axis (A1; 1A1), and - a second elastically deformable element (4a'; 14a') extending at least substantially orthoradially relative to the axis (A1; 1A1),
Method for controlling a machine tool, comprising a drive for driving a tool and a control unit when processing a workpiece with the method steps - Setting the revolution speed of the drive to a first value, - Measuring a first amplitude of a signal, - Filtering of the signal in a predetermined frequency range, - Measuring of a second amplitude of the filtered signal, - Reducing the revolution speed of the drive to a second value if the first amplitude exceeds a predetermined value and the second amplitude exceeds a second predetermined value, and - Increasing the revolution speed of the drive to the first value in increments, wherein each increment step of the revolution speed only takes place after the first amplitude has remained below the first predetermined value, and the second amplitude has remained below the second predetermined value, for a predetermined interval of time. - Setting the revolution speed of the drive to a first value, - Measuring a first amplitude of a signal, - Filtering of the signal in a predetermined frequency range, - Measuring of a second amplitude of the filtered signal, - Reducing the revolution speed of the drive to a second value if the first amplitude exceeds a predetermined value and the second amplitude exceeds a second predetermined value, and - Increasing the revolution speed of the drive to the first value in increments, wherein each increment step of the revolution speed only takes place after the first amplitude has remained below the first predetermined value, and the second amplitude has remained below the second predetermined value, for a predetermined interval of time.
A blood pressure measurement device, comprising: a first transducer (250, 310) configured to emit multiple soundwaves having multiple frequencies, the soundwaves configured to cause a blood vessel of a subject to vibrate; a second transducer configured to capture multiple ultrasound images of the blood vessel; and a processing device configured to: determine, based on the multiple captured ultrasound images, a resonant frequency of the blood vessel; and calculate, based on a wall (110, 210) thickness of the blood vessel, a radius or diameter of the blood vessel, and the determined resonant frequency, a blood pressure of the blood vessel or the subject, wherein determining the resonant frequency of the blood vessel comprises: determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency. a first transducer (250, 310) configured to emit multiple soundwaves having multiple frequencies, the soundwaves configured to cause a blood vessel of a subject to vibrate; a second transducer configured to capture multiple ultrasound images of the blood vessel; and a processing device configured to: determine, based on the multiple captured ultrasound images, a resonant frequency of the blood vessel; and calculate, based on a wall (110, 210) thickness of the blood vessel, a radius or diameter of the blood vessel, and the determined resonant frequency, a blood pressure of the blood vessel or the subject, wherein determining the resonant frequency of the blood vessel comprises: determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency. determine, based on the multiple captured ultrasound images, a resonant frequency of the blood vessel; and calculate, based on a wall (110, 210) thickness of the blood vessel, a radius or diameter of the blood vessel, and the determined resonant frequency, a blood pressure of the blood vessel or the subject, wherein determining the resonant frequency of the blood vessel comprises: determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency. determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency.
A method of determining the histological progression from normal to an esophageal adenocarcinoma in a subject, the method comprising: a) contacting a biological sample comprising esophageal cells from the subject-with a set of three or more chromosomal probes under conditions for specifically hybridizing the probes to their nucleic acid targets present in the sample, wherein said probes in said probe set detect gains or losses are selected from the following set of probes: i) an 8q24 locus-specific probe, a 20q13 locus-specific probe, a 17q11.2-12 locus-specific probe and a 9p21 locus-specific probe, wherein the set of three or more chromosomal probes contains a locus specific probe for 20q13; and b) detecting a hybridization pattern for gains or losses for the set of chromosomal probes to the biological sample, wherein the hybridization pattern is indicative of the increased likelihood of the development of an esophageal carcinoma or precursor lesion in the subject as compared to a subject without the detected hybridization pattern. a) contacting a biological sample comprising esophageal cells from the subject-with a set of three or more chromosomal probes under conditions for specifically hybridizing the probes to their nucleic acid targets present in the sample, wherein said probes in said probe set detect gains or losses are selected from the following set of probes: i) an 8q24 locus-specific probe, a 20q13 locus-specific probe, a 17q11.2-12 locus-specific probe and a 9p21 locus-specific probe, wherein the set of three or more chromosomal probes contains a locus specific probe for 20q13; and i) an 8q24 locus-specific probe, a 20q13 locus-specific probe, a 17q11.2-12 locus-specific probe and a 9p21 locus-specific probe, b) detecting a hybridization pattern for gains or losses for the set of chromosomal probes to the biological sample, wherein the hybridization pattern is indicative of the increased likelihood of the development of an esophageal carcinoma or precursor lesion in the subject as compared to a subject without the detected hybridization pattern.