mhurhangee/ep-ind-claims huggingface dataset:
Ceramic material having a negative temperature coefficient of the resistance and having the general formula: [{(SE 1 III,SE 2 III) 1-x (M 1 II,M 2 II) x}(Cr 1-y-z Mn y (Me 1 III,Me 2 III) z)O 3] wherein (SE 1 III, SE 2 III) are rare earth metal cations and SE 1 III can be identical to SE 2 III or represents various rare earth metal cations for mixtures of SE 1 III and SE 2 III, M 1 II can be identical to M 2 II or mixtures thereof with variable proportions and is Ca II or Sr II and Me 1 III and Me 2 III are redox-stable, trivalent metal cations which can be identical or different and 0 < x < 1; 0.1 ≤ z ≤ 0.5; 0.1 ≤ y ≤ 0.3 and the ceramic material is a phase-homogeneous perovskite mixed crystal system of a first electrically semiconductive perovskite system and a second electrically nonconductive perovskite system.
A method for the condition-based maintenance of an access device (2a, b) of a vehicle, in particular a vehicle of the public transport system, wherein the access device (2a, b) comprises a mobile element (3a, b) and an electrical drive (4a, b) for adjusting the mobile element (3a, b) and is fastened to the vehicle, wherein the drive (4a, b) is controlled by control signals (5a, b), wherein actual condition signals (9a, b) are generated based on a detected condition of the access device (2a, b) in order to describe the condition, wherein the control signals (5a, b) and the actual condition signals (9a, b) are used on a physical simulation model for the computer simulation of the access device (2a, b) and for determining expected future condition signals (12a, b), wherein a maintenance condition of the access device (2a, b) is determined on the basis of a comparison between the actual condition signals (9a, b) and respective expected condition signals (12a, b), and wherein the simulation model has been generated from construction data for the description of the access device (2a, b). a maintenance condition of the access device (2a, b) is determined on the basis of a comparison between the actual condition signals (9a, b) and respective expected condition signals (12a, b), and wherein the simulation model has been generated from construction data for the description of the access device (2a, b).
A method for determining a crash condition of a vehicle comprising the steps of: sensing crash acceleration in a first direction substantially parallel to a front- to-rear axis of the vehicle at a substantially central vehicle location and providing a first acceleration signal (CCU_1X) indicative thereof; sensing crash acceleration in a second direction substantially parallel to a side-to-side axis of the vehicle and providing a second acceleration signal (CCU_1Y) indicative thereof; sensing crash acceleration in the first direction at two locations remote from the substantially central vehicle location and near opposite sides of the vehicle and providing acceleration signals (RAS_1BX; RAS_2BX) indicative thereof; determining a transverse crash evaluation value (CCU_1Y_NFSigned_A_MA) functionally related to the second acceleration signal (CCU_1Y); determining remote crash evaluation values (LRBX_SUM_NF; LRBX_SUM_MU) functionally related to a sum of the the acceleration signals (RAS_1BX; RAS_2BX) at the remote locations; comparing the determined transverse crash evaluation value (CCU_1Y_NFSigned_A_MA) as a function of the determined remote crash evaluation values (LRBX_SUM_NF; LRBX_SUM_MU) against an associated threshold (152, 154); and determining a crash condition of the vehicle in response to (a) the comparison and (b) the first acceleration signal (CCU_1X). sensing crash acceleration in a first direction substantially parallel to a front- to-rear axis of the vehicle at a substantially central vehicle location and providing a first acceleration signal (CCU_1X) indicative thereof; sensing crash acceleration in a second direction substantially parallel to a side-to-side axis of the vehicle and providing a second acceleration signal (CCU_1Y) indicative thereof; sensing crash acceleration in the first direction at two locations remote from the substantially central vehicle location and near opposite sides of the vehicle and providing acceleration signals (RAS_1BX; RAS_2BX) indicative thereof; determining a transverse crash evaluation value (CCU_1Y_NFSigned_A_MA) functionally related to the second acceleration signal (CCU_1Y); determining remote crash evaluation values (LRBX_SUM_NF; LRBX_SUM_MU) functionally related to a sum of the the acceleration signals (RAS_1BX; RAS_2BX) at the remote locations; comparing the determined transverse crash evaluation value (CCU_1Y_NFSigned_A_MA) as a function of the determined remote crash evaluation values (LRBX_SUM_NF; LRBX_SUM_MU) against an associated threshold (152, 154); and determining a crash condition of the vehicle in response to (a) the comparison and (b) the first acceleration signal (CCU_1X).
A multiple access method of terminal in Evolved Packet System, EPS, characterized in that the multiple access method comprises: Sending, by a terminal, a second multiple access capability indication to a Packet Data Network Gateway, P-GW, wherein the second multiple access capability indication denotes that the terminal supports a multiple access; Sending, by the P-GW, a first multiple access capability indication to the terminal according to the second multiple access capability indication, wherein the first multiple access capability indication denotes that the P-GW supports a multiple access; and Performing, by the terminal, the multiple access according to the multiple access capability indication of the P-GW. Sending, by a terminal, a second multiple access capability indication to a Packet Data Network Gateway, P-GW, wherein the second multiple access capability indication denotes that the terminal supports a multiple access; Sending, by the P-GW, a first multiple access capability indication to the terminal according to the second multiple access capability indication, wherein the first multiple access capability indication denotes that the P-GW supports a multiple access; and Performing, by the terminal, the multiple access according to the multiple access capability indication of the P-GW.
Control unit for use in a means of transport which can be driven by a driver, wherein the means of transport comprises: an electric drive unit, a mechanical drive unit which can be operated by muscle power, and at least one transmission which can be shifted by at least one shifting means, wherein the control unit is designed to control the shifting means and the electric drive unit, wherein the shiftable transmission is designed to convert a first torque, applied to the mechanical drive unit by the driver, into a second torque, wherein the means of transport can be moved under the effect of the second torque and a third torque which is applied by the electric drive unit, wherein the control unit is designed to define a property of a shifting process and to control the shifting means and the electric drive unit on the basis of the property of the shifting process, wherein the property of the shifting process is a shifting time, wherein the means of transport also comprises at least one sensor, and the control unit is designed to define the property of the shifting process on the basis of at least one measurement variable which is determined by the at least one sensor, and wherein the at least one measurement variable comprises a position of the mechanical drive unit, and the control unit is designed to define the shifting time in such a way that at the shifting time the mechanical drive unit assumes a specific position, characterized in that the control unit is designed to control the shifting means and the electric drive unit in such a way that the third torque which is applied by the electric drive unit is in an increased state or is increased during the shifting process. an electric drive unit, a mechanical drive unit which can be operated by muscle power, and at least one transmission which can be shifted by at least one shifting means,
A process for the production of ultra high molecular weight polyethylene characterised in that the polymerisation takes place in the presence of a catalysts system comprising: I. a solid reaction product obtained by reaction of: (a) a hydrocarbon solution comprising an organic oxygen containing magnesium compound an organic oxygen containing titanium compound and at least one compound containing zirconium and/or hafnium and (b) a mixture comprising a metal compound having the formula MeR n X 3-n wherein X is a halogenide, Me is a metal of Group III of Mendeleev's Periodic System of Chemical Elements, R is a hydrocarbon radical containing 1 - 10 carbon atoms and 0 ≤ n < 3 and a silicon compound of formula R m SiCl 4-m wherein 0 ≤ m ≤ 2 and R is a hydrocarbon radical containing 1 - 10 carbon atoms wherein the molar ratio of metal from (b): titanium from (a) is lower than 1:1 and II. an organo aluminum compound having the formula AlR 3 in which R is a hydrocarbon radical containing 1 - 10 carbon atoms. I. a solid reaction product obtained by reaction of: (a) a hydrocarbon solution comprising an organic oxygen containing magnesium compound an organic oxygen containing titanium compound and at least one compound containing zirconium and/or hafnium and (b) a mixture comprising a metal compound having the formula MeR n X 3-n wherein X is a halogenide, Me is a metal of Group III of Mendeleev's Periodic System of Chemical Elements, R is a hydrocarbon radical containing 1 - 10 carbon atoms and 0 ≤ n < 3 and a silicon compound of formula R m SiCl 4-m wherein 0 ≤ m ≤ 2 and R is a hydrocarbon radical containing 1 - 10 carbon atoms wherein the molar ratio of metal from (b): titanium from (a) is lower than 1:1 and (a) a hydrocarbon solution comprising an organic oxygen containing magnesium compound an organic oxygen containing titanium compound and at least one compound containing zirconium and/or hafnium and an organic oxygen containing magnesium compound an organic oxygen containing titanium compound and at least one compound containing zirconium and/or hafnium and (b) a mixture comprising a metal compound having the formula MeR n X 3-n wherein X is a halogenide, Me is a metal of Group III of Mendeleev's Periodic System of Chemical Elements, R is a hydrocarbon radical containing 1 - 10 carbon atoms and 0 ≤ n < 3 and a silicon compound of formula R m SiCl 4-m wherein 0 ≤ m ≤ 2 and R is a hydrocarbon radical containing 1 - 10 carbon atoms wherein the molar ratio of metal from (b): titanium from (a) is lower than 1:1 and II. an organo aluminum compound having the formula AlR 3 in which R is a hydrocarbon radical containing 1 - 10 carbon atoms.
A method for generating a phone bill, applied to a charging system in the communication field, the generating method comprising a preprocessing process and a process of combining phone bills, wherein, the preprocessing process comprises: the charging system using multiple threads for preprocessing a plurality of service logs simultaneously, and each service log being preprocessed to generate one or more intermediate phone bills, wherein information in the service log is converted into information required for the intermediate phone bills when performing preprocessing; and the process of combining phone bills comprises: the charging system using a single thread for processing to generate desired phone bill(s) seriatim, wherein during each process of generating the phone bill(s), the charging system collects and combines the intermediate phone bills required for generating present phone bill, characterized in that during each process of generating the phone bill(s), the charging system further accomplishes encoding of record serial numbers and file serial numbers, so as to generate the present phone bill, and in that the step of preprocessing each service log comprises: marking the service log firstly, and then preprocessing the service log to generate one or more temporary intermediate phone bills associated with the service log, and then deleting the service log after accomplishing generation of the temporary intermediate phone bills, and then converting all the temporary intermediate phone bills associated with the service log into the intermediate phone bills. marking the service log firstly, and then preprocessing the service log to generate one or more temporary intermediate phone bills associated with the service log, and then deleting the service log after accomplishing generation of the temporary intermediate phone bills, and then converting all the temporary intermediate phone bills associated with the service log into the intermediate phone bills.
A process for the production of a dispersion of a carbon nanotube, the process comprising preparing a powdery and/or particulate material of an organic compound pre-baked to an extent of containing remaining hydrogen of 500 ppm to 60,000 ppm and allowed to carry a catalyst, which may be a transition metal, other metal or other element, thereon, charging the powdery and/or particulate material of the organic compound in a closed vessel made of a heat resistant material, subjecting the powdery and/or particulate material of the organic compound together with the vessel to hot isostatic pressing treatment using a compressed gas atmosphere at a maximum ultimate temperature at the hot isostatic pressing treatment of 750 to 1200°C, to give a carbon nanotube which is compressed to form a band in its whole length or a part thereof, and dispersing the carbon nanotube to an organic solvent.
An X-ray scanner comprising a plurality of electron emitters and a control system, the control system comprising an input arranged to receive an input signal identifying which of the plurality of electron emitters is to be active, and to produce a plurality of voltage outputs each arranged to control operation of one of the emitters, the system further comprising output monitoring means arranged to monitor each of the outputs and generate a feedback signal as a serial output indicating if any of the outputs exceeds a predetermined threshold voltage, wherein the output monitoring means is arranged to compare each of the outputs to a reference signal, and produce a comparison signal indicating whether the output is greater than the reference signal, and the output monitoring means is arranged to combine the comparison signals into the serial output, characterised by the control system further comprising a parallel-in-serial-out feedback register arranged to receive the comparison signals and generate the serial output.
Use of an additive comprising a polyamide-based copolymer having at least one grafted side chain formed from ethylenic unsaturated compounds as a thinner or deflocculant; in a drilling fluid comprising: an aqueous base, wherein the drilling fluid has a pH in the range of 8.0 to 10.5. an aqueous base, wherein the drilling fluid has a pH in the range of 8.0 to 10.5.
An apparatus comprising: an acoustic chamber configured to be shared by at least an antenna portion of the apparatus and a transducer of the apparatus in an attempt to meet both acoustic requirements and radio frequency requirements, the antenna portion being configured to transmit and/or receive a radio frequency signal, the antenna portion configured to operate at a radio frequency wavelength; the transducer configured to generate acoustic waves which enter the acoustic chamber upon driving the transducer; characterized in that the apparatus comprises an agglomeration of adsorbing members comprising: a layer of patches of conductive activated carbon located on or in a non-conductive support layer within the acoustic chamber, wherein the non-conductive support layer comprises an acoustically transparent material upon which the layer of patches of conductive activated carbon is located such that each patch of conductive activated carbon of the layer of patches of conductive activated carbon is separated from neighbouring patches of conductive activated carbon of the layer of patches of conductive activated carbon, by an air gap or by the non-conductive support material of the non-conductive support layer. an acoustic chamber configured to be shared by at least an antenna portion of the apparatus and a transducer of the apparatus in an attempt to meet both acoustic requirements and radio frequency requirements, the antenna portion being configured to transmit and/or receive a radio frequency signal, the antenna portion configured to operate at a radio frequency wavelength; the transducer configured to generate acoustic waves which enter the acoustic chamber upon driving the transducer; characterized in that the apparatus comprises an agglomeration of adsorbing members comprising: a layer of patches of conductive activated carbon located on or in a non-conductive support layer within the acoustic chamber, wherein the non-conductive support layer comprises an acoustically transparent material upon which the layer of patches of conductive activated carbon is located such that each patch of conductive activated carbon of the layer of patches of conductive activated carbon is separated from neighbouring patches of conductive activated carbon of the layer of patches of conductive activated carbon, by an air gap or by the non-conductive support material of the non-conductive support layer.
A method of grounding a plurality of electrical members for protection against at least one of EMI, RFI or ESD, comprising: removing a section of an outer insulation sheath (28; 128) from each of the electrical members to form exposed regions (30; 130) on each of the electrical members; characterised in that the method further comprises: placing an interlaced wall (14; 114) of conductive filaments over the exposed regions to bring the interlaced wall into electrical communication with the electrical members; and operably coupling the interlaced wall in electrical communication with the electrical members. removing a section of an outer insulation sheath (28; 128) from each of the electrical members to form exposed regions (30; 130) on each of the electrical members; characterised in that the method further comprises: placing an interlaced wall (14; 114) of conductive filaments over the exposed regions to bring the interlaced wall into electrical communication with the electrical members; and operably coupling the interlaced wall in electrical communication with the electrical members. placing an interlaced wall (14; 114) of conductive filaments over the exposed regions to bring the interlaced wall into electrical communication with the electrical members; and operably coupling the interlaced wall in electrical communication with the electrical members.
A high-temperature fuel cell system comprising: a fuel cell that includes an anode and a cathode and that generates power by using a fuel gas and an oxidant gas; a fuel-gas path along which the fuel gas flows; an oxidant-gas path along which the oxidant gas flows; an anode-off-gas path along which an anode off-gas discharged from the anode flows; a cathode-off-gas path along which a cathode off-gas discharged from the cathode flows; a combustion space that is in communication with the anode-off-gas path and the cathode-off-gas path and in which the anode off-gas and the cathode off-gas are burned; a flue-gas path along which a flue gas discharged from the combustion space flows; a cathode-off-gas branch portion that is disposed on the cathode-off-gas path between the combustion space and the cathode and at which some of the cathode off-gas is branched from the cathode-off-gas path; a first heat exchanger that enables heat exchange between the oxidant gas, the flue gas, and the cathode off-gas that has passed through the cathode off-gas branch portion; and characterized by a mixing portion that is disposed on the flue-gas path (11, 12) and at which the flue gas and the cathode off-gas that has passed through the cathode-off-gas branch portion are mixed. a fuel cell that includes an anode and a cathode and that generates power by using a fuel gas and an oxidant gas; a fuel-gas path along which the fuel gas flows; an oxidant-gas path along which the oxidant gas flows; an anode-off-gas path along which an anode off-gas discharged from the anode flows; a cathode-off-gas path along which a cathode off-gas discharged from the cathode flows; a combustion space that is in communication with the anode-off-gas path and the cathode-off-gas path and in which the anode off-gas and the cathode off-gas are burned; a flue-gas path along which a flue gas discharged from the combustion space flows; a cathode-off-gas branch portion that is disposed on the cathode-off-gas path between the combustion space and the cathode and at which some of the cathode off-gas is branched from the cathode-off-gas path; a first heat exchanger that enables heat exchange between the oxidant gas, the flue gas, and the cathode off-gas that has passed through the cathode off-gas branch portion; and characterized by a mixing portion that is disposed on the flue-gas path (11, 12) and at which the flue gas and the cathode off-gas that has passed through the cathode-off-gas branch portion are mixed.
A composition containing an active amount of tocotrienol or a derivative thereof and curcumin for use in the prevention or treatment of breast cancer.
A method for automated switchover timer tuning on network systems or Next Generation Emergency Systems, wherein the method comprising the steps of: step S1) sending, by a master node, a heartbeat and/or ARP ping to one or more backup nodes and/or a surveillance unit according to preconfigured switchover timer values to check if the master node is still active; step S2) sending, by the one or more backup node and/or the surveillance unit, an additional first Session Initiation Protocol, SIP, OPTION message to the master node after receiving the heartbeat and/or the ARP ping or if the heartbeat and/or ARP ping fails to be received according to the switchover timer values; step S3) performing, by an administrator or an administrative unit of the network, a switchover or failover to a backup node in case the first SIP OPTION message is not answered with "200ok" by the master node according to a preconfigured time value. step S1) sending, by a master node, a heartbeat and/or ARP ping to one or more backup nodes and/or a surveillance unit according to preconfigured switchover timer values to check if the master node is still active; step S2) sending, by the one or more backup node and/or the surveillance unit, an additional first Session Initiation Protocol, SIP, OPTION message to the master node after receiving the heartbeat and/or the ARP ping or if the heartbeat and/or ARP ping fails to be received according to the switchover timer values; step S3) performing, by an administrator or an administrative unit of the network, a switchover or failover to a backup node in case the first SIP OPTION message is not answered with "200ok" by the master node according to a preconfigured time value.