mhurhangee/ep-ind-claims huggingface dataset:
A cone cutter for removing a plastic pipe laid in the ground, such as for example a gas pipe, a water pipe or a sewage pipe which consists of PVC, PE, PET, SLM material, and which cooperates with a rotating drilling rod of a drilling machine which is driven in for machining the pipe, and the cone cutter comprises flushing channels, the flushing material pumped by the drilling rod together with the accumulating machined material in the annular space formed by the pipe and the drilling rod being discharged through said flushing channels, characterised in that a comminuting tool is provided in the annular space for the accumulating peeled-off machined material.
A blood vessel detection system comprising: a handheld blood vessel detection device, comprising: an ultrasound probe to detect blood vessels within a patient's body, a display device to provide a visual display of the blood vessels within the patient's body; a vascular access device chassis configured to maintain a VAD; and a linear motor to automatically advance the VAD into the patient's body, CHARACTERIZED IN THAT the VAD chassis is provided in a housing of the handheld blood vessel detection device; and the linear motor is configured to allow for a tilt movement, a rotation movement, and a yaw movement of the VAD during insertion. an ultrasound probe to detect blood vessels within a patient's body, a display device to provide a visual display of the blood vessels within the patient's body; a vascular access device chassis configured to maintain a VAD; and a linear motor to automatically advance the VAD into the patient's body, CHARACTERIZED IN THAT the VAD chassis is provided in a housing of the handheld blood vessel detection device; and the linear motor is configured to allow for a tilt movement, a rotation movement, and a yaw movement of the VAD during insertion.
A method for detection of one or more antigenic peptide responsive T cells in a sample, the method comprising the following steps: i. providing loadable detection molecules comprising at least one peptide-free MHC class I molecule and at least one detectable label, ii. providing at least one antigenic peptide, iii. contacting the loadable detection molecules with the at least one antigenic peptide to provide loaded detection molecules comprising at least one peptide-MHC (pMHC) class I molecule, iv. contacting the loaded detection molecules with the sample, and v. detecting binding of the loaded detection molecules to the one or more antigenic peptide responsive T cells, wherein each of the at least one antigenic peptide is represented by: - at least two different detectable labels, or - at least one detectable label which is a nucleic acid label, wherein the peptide-free MHC class I molecule comprises a heavy chain comprising an alpha-1 domain and an alpha-2 domain connected by a disulfide bridge, said heavy chain comprising an amino acid sequence selected from: (a) SEQ ID NO: 1, or (b) an amino acid sequence having at least 80% sequence identity to the sequence in (a), wherein a mutant cysteine residue is positioned in the alpha-1 domain at amino acid residue 84 or 85 and a mutant cysteine residue is positioned in the alpha-2 domain at amino acid residue 139. i. providing loadable detection molecules comprising at least one peptide-free MHC class I molecule and at least one detectable label, ii. providing at least one antigenic peptide, iii. contacting the loadable detection molecules with the at least one antigenic peptide to provide loaded detection molecules comprising at least one peptide-MHC (pMHC) class I molecule, iv. contacting the loaded detection molecules with the sample, and v. detecting binding of the loaded detection molecules to the one or more antigenic peptide responsive T cells, wherein each of the at least one antigenic peptide is represented by: - at least two different detectable labels, or - at least one detectable label which is a nucleic acid label, - at least two different detectable labels, or - at least one detectable label which is a nucleic acid label, wherein the peptide-free MHC class I molecule comprises a heavy chain comprising an alpha-1 domain and an alpha-2 domain connected by a disulfide bridge, said heavy chain comprising an amino acid sequence selected from: (a) SEQ ID NO: 1, or (b) an amino acid sequence having at least 80% sequence identity to the sequence in (a), (a) SEQ ID NO: 1, or (b) an amino acid sequence having at least 80% sequence identity to the sequence in (a), wherein a mutant cysteine residue is positioned in the alpha-1 domain at amino acid residue 84 or 85 and a mutant cysteine residue is positioned in the alpha-2 domain at amino acid residue 139.
An airbag module comprising a gas generator and an airbag in which the gas generator is located, wherein the airbag is laid into plural folds extending in parallel to each other so as to form an elongate package in an intermediate state, wherein the gas generator, related to the length of the parallel folds, is positioned in the central third in the airbag, and wherein the outer thirds form airbag end portions (16, 18) of the airbag being folded into at least two parts (28, 30, 32, 34), wherein the two internal parts (28, 30) extend along the outer circumference of the gas generator toward each other up to a folding zone and wherein the respective external part (32, 34) of each airbag end portion (16, 18) is folded over outwards starting from the folding zone and extends along its associated internal part (28, 30) in the opposite direction.
A pharmaceutical composition for the treatment of osteoarthritis in mammal comprising sodium bicarbonate at a concentration of from about 5%-10% (w/v), and calcium gluconate at a concentration of from about 0.5%-5% (w/v).
An air-conditioning outdoor unit including a compressor having a plurality of terminals each including a plurality of conductive pins (12, 13), the air-conditioning outdoor unit, comprising: a plurality of lead wire groups (31, 32) provided for the respective terminals, the lead wire groups (31, 32) each including a plurality of lead wires connecting a control board to the plurality of conductive pins (12, 13); and a plurality of different end connectors (14, 15) provided for the respective lead wire groups (31, 32), the end connectors each being attached to an end portion of the lead wire group (31, 32) adjacent to the plurality of conductive pins (12, 13), characterized in that the lead wire groups (31, 32) are each connected by the end connector (14, 15) to the plurality of conductive pins (12, 13) and cut into two parts at a given point in a longitudinal direction, the two parts of the lead wire group (31, 32) are detachably coupled together at the given point by a pair of relay connectors (33, 34), and a length from the control board to the given point and a length from the given point to the end connector (14, 15) differ from one lead wire group (31, 32) to another. a plurality of lead wire groups (31, 32) provided for the respective terminals, the lead wire groups (31, 32) each including a plurality of lead wires connecting a control board to the plurality of conductive pins (12, 13); and a plurality of different end connectors (14, 15) provided for the respective lead wire groups (31, 32), the end connectors each being attached to an end portion of the lead wire group (31, 32) adjacent to the plurality of conductive pins (12, 13), characterized in that the lead wire groups (31, 32) are each connected by the end connector (14, 15) to the plurality of conductive pins (12, 13) and cut into two parts at a given point in a longitudinal direction, the two parts of the lead wire group (31, 32) are detachably coupled together at the given point by a pair of relay connectors (33, 34), and a length from the control board to the given point and a length from the given point to the end connector (14, 15) differ from one lead wire group (31, 32) to another.
Method for operating a motor vehicle, which is switched between a manual driving mode, in which the motor vehicle is guided by a driver, and an automatic driving mode, in which longitudinal guidance and transverse guidance of the motor vehicle are carried out automatically by means of a control device of the motor vehicle, wherein, at least in the manual driving mode, a vehicle-specific display device of the motor vehicle is operated by means of an input device arranged on a steering wheel of the motor vehicle, wherein a communication connection is established between a communication device of the motor vehicle, on the one hand, and a portable communication terminal separate from the motor vehicle and an entertainment mode is activated in the automatic driving mode of the motor vehicle, in which entertainment mode, via the communication connection, input data generated by the input device of the steering wheel are transmitted to the communication terminal and/or image data generated by the communication terminal for display on the display device are transmitted to the communication device of the motor vehicle, such that the input device is used for carrying out inputs at the communication terminal and/or the display device is used for displaying image data of the communication terminal, characterized in that by means of a decoupling device of the motor vehicle, the steering wheel is completely decoupled from a steering movement of the steerable wheels of the motor vehicle in the entertainment mode.
A method of estimating the internal temperature of an electrochemical device, said method comprising: (a) exciting said electrochemical device with a driving profile; (b) acquiring voltage and current data from said electrochemical device, in response to said driving profile, being characterized in that the method further comprises the steps of: (c) calculating an impulse response from said current and voltage data and time derivatives thereof, using a recursive or matrix-based technique; (d) calculating an impedance spectrum of said electrochemical device from said impulse response using an impulse response model; (e) calculating a state-of-charge of said electrochemical device; and (f) estimating an internal temperature of said electrochemical device based on a temperature-impedance-state-of-charge relationship characterizing said electrochemical device. (a) exciting said electrochemical device with a driving profile; (b) acquiring voltage and current data from said electrochemical device, in response to said driving profile, being characterized in that the method further comprises the steps of: (c) calculating an impulse response from said current and voltage data and time derivatives thereof, using a recursive or matrix-based technique; (d) calculating an impedance spectrum of said electrochemical device from said impulse response using an impulse response model; (e) calculating a state-of-charge of said electrochemical device; and (f) estimating an internal temperature of said electrochemical device based on a temperature-impedance-state-of-charge relationship characterizing said electrochemical device.
Cartridge element comprising a bundle of hollow fiber type membranes aligned in a cartridge tube and end caps (8a, 8b) at each end of the cartridge tube, - the cartridge tube comprises at least one fluid inlet/outlet opening arranged between the end caps (8a, 8b), - the end caps (8a, 8b) are made of a polymeric material, - the end caps (8a, 8b) are fixed to the cartridge element, and - the tube sheets at each end of the membrane bundle are fixed to the cartridge element, wherein said fixed parts cannot be separated without destruction of the cartridge element and/or a bonding layer and/or at least one of the fixed parts, and characterized in that at least one end cap is partially slid into the cartridge tube, the end cap comprises a first part (a) with an outer diameter which is narrower than the inner diameter of the cartridge tube, and said first part (a) of the end cap comprises spacers (e) that center the cap into the cartridge tube and leave space between the respective surface of the cartridge tube and the respective surface of the first part (a) of the end cap which is filled with potting resin. a bundle of hollow fiber type membranes aligned in a cartridge tube and end caps (8a, 8b) at each end of the cartridge tube, - the cartridge tube comprises at least one fluid inlet/outlet opening arranged between the end caps (8a, 8b), - the end caps (8a, 8b) are made of a polymeric material, - the end caps (8a, 8b) are fixed to the cartridge element, and - the tube sheets at each end of the membrane bundle are fixed to the cartridge element, - the cartridge tube comprises at least one fluid inlet/outlet opening arranged between the end caps (8a, 8b), - the end caps (8a, 8b) are made of a polymeric material, - the end caps (8a, 8b) are fixed to the cartridge element, and - the tube sheets at each end of the membrane bundle are fixed to the cartridge element, wherein said fixed parts cannot be separated without destruction of the cartridge element and/or a bonding layer and/or at least one of the fixed parts, and characterized in that at least one end cap is partially slid into the cartridge tube, the end cap comprises a first part (a) with an outer diameter which is narrower than the inner diameter of the cartridge tube, and said first part (a) of the end cap comprises spacers (e) that center the cap into the cartridge tube and leave space between the respective surface of the cartridge tube and the respective surface of the first part (a) of the end cap which is filled with potting resin.
A high-capacity and long-life negative electrode hydrogen storage material of La-Mg-Ni type for secondary rechargeable nickel-metal hydride battery, wherein a chemical formula of the negative electrode hydrogen storage material of La-Mg-Ni type is La 1-x-y Re x Mg y (Ni 1-a-b Al a M b) z, wherein Re is at least one of Ce, Pr, Nd, Sm, Y, and M is at least one of Ti, Cr, Mo, Nb, Ga, V, Si, Zn, Sn; 0≤ x ≤ 0.10, 0.3 ≤ y ≤ 0.5, 0 < a ≤ 0.05, 0 ≤ b ≤ 0.02, 2.3 ≤ z < 3.0; wherein the chemical formula of the negative electrode hydrogen storage material of the La-Mg-Ni type is selected from the group consisting of La 0.66 Mg 0.34 (Ni 0.96 Al 0.04) 2.99; La 0.65 Ce 0.02 Mg 0.33 (Ni 0.96 Al 0.04) 2.99; La 0.57 Ce 0.04 Mg 0.39 (Ni 0.95 Al 0.04 Si 0.01) 2.83; La 0.53 Nd 0.08 Mg 0.39 (Ni 0.95 Al 0.04 Si 0.01) 2.83; La 0.57 Ce 0.02 Sm 0.03 Mg 0.38 (Ni 0.95 Al 0.04 Si 0.01) 2.83; La 0.60 Ce 0.02 Mg 0.38 (Ni 0.96 Al 0.04) 2.80; La 0.53 Pr 0.03 Nd 0.06 Mg 0.38 (Ni 0.96 Al 0.04) 2.80; La 0.58 Ce 0.02 Nd 0.02 Mg 0.38 (Ni 0.96 Al 0.04) 2.75; La 0.54 Ce 0.02 Mg 0.44 (Ni 0.96 Al 0.04) 2.57; and La 0.49 Ce 0.01 Mg 0.50 (Ni 0.96 Al 0.04) 2.37. wherein Re is at least one of Ce, Pr, Nd, Sm, Y, and M is at least one of Ti, Cr, Mo, Nb, Ga, V, Si, Zn, Sn; 0≤ x ≤ 0.10, 0.3 ≤ y ≤ 0.5, 0 < a ≤ 0.05, 0 ≤ b ≤ 0.02, 2.3 ≤ z < 3.0; wherein the chemical formula of the negative electrode hydrogen storage material of the La-Mg-Ni type is selected from the group consisting of La 0.66 Mg 0.34 (Ni 0.96 Al 0.04) 2.99; La 0.65 Ce 0.02 Mg 0.33 (Ni 0.96 Al 0.04) 2.99; La 0.57 Ce 0.04 Mg 0.39 (Ni 0.95 Al 0.04 Si 0.01) 2.83; La 0.53 Nd 0.08 Mg 0.39 (Ni 0.95 Al 0.04 Si 0.01) 2.83; La 0.57 Ce 0.02 Sm 0.03 Mg 0.38 (Ni 0.95 Al 0.04 Si 0.01) 2.83; La 0.60 Ce 0.02 Mg 0.38 (Ni 0.96 Al 0.04) 2.80; La 0.53 Pr 0.03 Nd 0.06 Mg 0.38 (Ni 0.96 Al 0.04) 2.80; La 0.58 Ce 0.02 Nd 0.02 Mg 0.38 (Ni 0.96 Al 0.04) 2.75; La 0.54 Ce 0.02 Mg 0.44 (Ni 0.96 Al 0.04) 2.57; and La 0.49 Ce 0.01 Mg 0.50 (Ni 0.96 Al 0.04) 2.37.
Vacuum therapy unit for treating wounds on human or animal bodies by means of vacuum, comprising - a housing which delimits the vacuum therapy unit to the outside, - a pump for generating a vacuum having an inlet and an outlet, - a sound damper for the pump having a cavity-forming housing, an inlet and an outlet, wherein the sound damper has one or more filter chambers which are partially or completely filled with a sound-damping material, and wherein the housing of the sound damper comprises a first housing part and a second housing part which can be connected to one another to form the one or more filter chambers, - a frame for arranging and/or fastening inner components of the vacuum therapy unit, wherein the outlet of the pump is in fluid communication with the inlet of the sound damper, and the outlet of the sound damper is in fluid communication with the atmosphere surrounding the vacuum therapy unit, and wherein the pump, the sound damper and the frame are situated within the housing of the vacuum therapy unit, wherein - the first housing part of the sound damper is formed by a portion of the frame, characterized in that - the first housing part comprises a substantially planar surface of the frame, - the second housing part comprises an open outer surface which can be closed by the substantially planar surface of the first housing part if the first and the second housing part (21, 31) are connected to one another, and - the cavity of the sound damper is substantially formed by the second housing part. - a housing which delimits the vacuum therapy unit to the outside, - a pump for generating a vacuum having an inlet and an outlet, - a sound damper for the pump having a cavity-forming housing, an inlet and an outlet, wherein the sound damper has one or more filter chambers which are partially or completely filled with a sound-damping material, and wherein the housing of the sound damper comprises a first housing part and a second housing part which can be connected to one another to form the one or more filter chambers, - a frame for arranging and/or fastening inner components of the vacuum therapy unit, - the first housing part of the sound damper is formed by a portion of the frame, - the first housing part comprises a substantially planar surface of the frame, - the second housing part comprises an open outer surface which can be closed by the substantially planar surface of the first housing part if the first and the second housing part (21, 31) are connected to one another, and - the cavity of the sound damper is substantially formed by the second housing part.
Processing circuitry for use in processing signals obtained from a microphone mounted on a body of a drug delivery device to determine operating conditions of the drug delivery device, the processing circuitry being characterised by: means (73, 81) for determining a frequency of a dominant frequency component or a harmonic thereof in the acoustic signal received from the microphone; and means for converting the determined frequency of the dominant frequency component or the harmonic thereof into a flow rate value using stored calibration data. means (73, 81) for determining a frequency of a dominant frequency component or a harmonic thereof in the acoustic signal received from the microphone; and means for converting the determined frequency of the dominant frequency component or the harmonic thereof into a flow rate value using stored calibration data.
A method by an apparatus for controlling buffers for a handover in a wireless communication system, the method comprising: storing information of packet data convergence protocol, PDCP, protocol data units, PDUs, in a first buffer; obtaining a radio link control, RLC, PDU corresponding to the PDCP PDUs; storing information on a media access control, MAC, service data unit, SDU, and a MAC sub-header corresponding to the RLC PDU in a second buffer; transmitting the RLC PDU; in case that positive acknowledgement information is received for the RLC PDU: discarding information of at least one of the PDCP PDUs among PDCP PDUs corresponding to the RLC PDU for which the positive acknowledgement information is received, wherein the at least one of the PDCP PDUs has consecutive sequence numbers that begin with a lowest sequence number for which corresponding information is stored in the first buffer; and discarding the information included in the second buffer. storing information of packet data convergence protocol, PDCP, protocol data units, PDUs, in a first buffer; obtaining a radio link control, RLC, PDU corresponding to the PDCP PDUs; storing information on a media access control, MAC, service data unit, SDU, and a MAC sub-header corresponding to the RLC PDU in a second buffer; transmitting the RLC PDU; in case that positive acknowledgement information is received for the RLC PDU: discarding information of at least one of the PDCP PDUs among PDCP PDUs corresponding to the RLC PDU for which the positive acknowledgement information is received, wherein the at least one of the PDCP PDUs has consecutive sequence numbers that begin with a lowest sequence number for which corresponding information is stored in the first buffer; and discarding the information included in the second buffer. discarding information of at least one of the PDCP PDUs among PDCP PDUs corresponding to the RLC PDU for which the positive acknowledgement information is received, wherein the at least one of the PDCP PDUs has consecutive sequence numbers that begin with a lowest sequence number for which corresponding information is stored in the first buffer; and discarding the information included in the second buffer.
A method for providing a Law Enforcement Agency, LEA, with payload data of an intercepted Internet Protocol, IP, flow, the payload data belonging to one or more target identities using a specific IP service, the method comprising: - Receiving intercepted payload data belonging to one or more target identities using a specific IP service from an Intercepting Control Element by a Mediation Functionality MF3 of an Intercept Mediation and Delivery Unit, IMDU; - Classifying the payload data in the Mediation Functionality MF3 by identifying the specific IP service to which the received payload data belongs, wherein the classifying of the payload data comprises identifying the specific IP service to which the received payload data belongs by means of preferences set by the network operator; - Marking each IP packet of the received payload data with a service identifier corresponding to the classification of the specific IP service to which the received payload data belongs and forwarding the marked IP packets of the received payload data from the Mediation Functionality MF3 to the Law Enforcement Agency requesting the interception, with the service identifier being inserted in the Lawful Interception header on top of the supported standard for Handover Interface HI3. - Receiving intercepted payload data belonging to one or more target identities using a specific IP service from an Intercepting Control Element by a Mediation Functionality MF3 of an Intercept Mediation and Delivery Unit, IMDU; - Classifying the payload data in the Mediation Functionality MF3 by identifying the specific IP service to which the received payload data belongs, wherein the classifying of the payload data comprises identifying the specific IP service to which the received payload data belongs by means of preferences set by the network operator; - Marking each IP packet of the received payload data with a service identifier corresponding to the classification of the specific IP service to which the received payload data belongs and forwarding the marked IP packets of the received payload data from the Mediation Functionality MF3 to the Law Enforcement Agency requesting the interception, with the service identifier being inserted in the Lawful Interception header on top of the supported standard for Handover Interface HI3.