mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the relative position in space of at least two magnetic field sources in relation to at least one magnetic field sensor, at least one of the magnetic field sources being a solenoid, the method comprising the steps of: a) acquiring measurements of the magnetic field generated by said magnetic field sources by means of said at least one magnetic field sensor; b) computing, by means of at least one processor, a solution of the expression of the magnetic field generated by the magnetic field sources by modelling each said magnetic field source by an element chosen from among a superposition of solenoids and a superposition of charged planes, then by estimating the value of a complete elliptic integral linked to said model by an iterative Bulirsch algorithm using a Landen transformation; c) computing at least one element chosen from among the position and the orientation of each said magnetic field source by using at least one method chosen from among: - a minimisation of the cost between said measurements of said at least one magnetic field sensor and said solutions computed in step b); - a Bayesian filtering, at successive instants, of each said measurement of each said at least one magnetic field sensor, said filtering being a function of each said solution computed in step b), the method further comprising the command of a periodic emission of the intensity of the magnetic field of said solenoid at a different frequency from at least one other of said magnetic field sources. a) acquiring measurements of the magnetic field generated by said magnetic field sources by means of said at least one magnetic field sensor; b) computing, by means of at least one processor, a solution of the expression of the magnetic field generated by the magnetic field sources by modelling each said magnetic field source by an element chosen from among a superposition of solenoids and a superposition of charged planes, then by estimating the value of a complete elliptic integral linked to said model by an iterative Bulirsch algorithm using a Landen transformation; c) computing at least one element chosen from among the position and the orientation of each said magnetic field source by using at least one method chosen from among: - a minimisation of the cost between said measurements of said at least one magnetic field sensor and said solutions computed in step b); - a Bayesian filtering, at successive instants, of each said measurement of each said at least one magnetic field sensor, said filtering being a function of each said solution computed in step b), the method further comprising the command of a periodic emission of the intensity of the magnetic field of said solenoid at a different frequency from at least one other of said magnetic field sources. - a minimisation of the cost between said measurements of said at least one magnetic field sensor and said solutions computed in step b); - a Bayesian filtering, at successive instants, of each said measurement of each said at least one magnetic field sensor, said filtering being a function of each said solution computed in step b),
A method for producing a fusion protein made of a protein having a self-assembly capability and a target protein, comprising the following steps to: preparing a solution containing the fusion protein; adjusting a pH of the solution obtained in step to such a pH that a recovery ratio calculated according to the following equation is 10% or more, preferably 30% or more, wherein the recovery ratio % = an amount of the fusion protein in a solution obtained in a solution obtained in step 4 / the amount of the fusion protein in the solution obtained in step 4 + an amount of the fusion protein in a solution after solid separation in step 3 × 100; separating a solid from the solution obtained in step; and dissolving the solid separated in step into a solution having a pH of 12 or below but higher than the pH of the solution obtained in step by 0.1 or more, wherein the protein having a self-assembly capability is a protein comprising 6 to 250 amino acid residues from the N-terminus of the amino acid sequence shown in SEQ ID NO:3. preparing a solution containing the fusion protein; adjusting a pH of the solution obtained in step to such a pH that a recovery ratio calculated according to the following equation is 10% or more, preferably 30% or more, wherein the recovery ratio % = an amount of the fusion protein in a solution obtained in a solution obtained in step 4 / the amount of the fusion protein in the solution obtained in step 4 + an amount of the fusion protein in a solution after solid separation in step 3 × 100; separating a solid from the solution obtained in step; and dissolving the solid separated in step into a solution having a pH of 12 or below but higher than the pH of the solution obtained in step by 0.1 or more,
A probe apparatus of a millimeter or submillimeter radio frequency band, the probe apparatus having a layered structure, wherein the probe apparatus comprises: transition layers (104, 106) having outermost layers (110, 116) on opposite surfaces of the probe apparatus, at least one of the outermost layers being connectable to an outer waveguide (112, 132); an internal transition cavity extending through the transition layers (104, 106) for guiding electromagnetic radiation within the probe apparatus, characterized in that the probe apparatus comprises a probe layer disposed between the transition layers (104, 106), the probe layer having a lateral transmission line for interacting with the electromagnetic radiation guided by the internal transmission cavity, the lateral transmission line being connected with a rectifying component, which is inside the probe layer and configured to rectify the output of the at least a part of the electromagnetic radiation received with the transmission line into a DC-signal, the rectifying component having a conductor that is at least partly inside the probe layer and extending out of the layered structure for outside connection. transition layers (104, 106) having outermost layers (110, 116) on opposite surfaces of the probe apparatus, at least one of the outermost layers being connectable to an outer waveguide (112, 132); an internal transition cavity extending through the transition layers (104, 106) for guiding electromagnetic radiation within the probe apparatus, characterized in that the probe apparatus comprises a probe layer disposed between the transition layers (104, 106), the probe layer having a lateral transmission line for interacting with the electromagnetic radiation guided by the internal transmission cavity, the lateral transmission line being connected with a rectifying component, which is inside the probe layer and configured to rectify the output of the at least a part of the electromagnetic radiation received with the transmission line into a DC-signal, the rectifying component having a conductor that is at least partly inside the probe layer and extending out of the layered structure for outside connection.
Process for concentrating amine water, said amine water being wastewater deriving from the partial or total replacement of aqueous solutions of chemical compounds containing nitrogen used for the treatment of natural gas and comprising water and nitrogen-containing chemical compounds and having a concentration of total nitrogen ranging between 10000 mg/L and 100000 mg/L, the amine water further comprising sulfur sulfide whose sulfur sulfide concentration ranges from 1000 mg/L to 10000 mg/L, and boron with a concentration which ranges from 10 mg/L to 1000 mg/L, the amine water having a chemical oxygen demand which ranges from 100000 mg/L to 1000000 mg/L; said process comprising dehydrating said amine water through membrane distillation at a temperature ranging from 30 °C to 95° C and at a pressure ranging from 1 bar to 1.5 absolute bar; wherein the amine water is heated and fed to a membrane distillation unit in a first sector at atmospheric pressure, adjacent to a polymeric membrane, said membrane being in turn adjacent to a second sector at atmospheric pressure; both sectors being maintained at atmospheric pressure between 1 and 1.5 absolute bar; and wherein a distillate in vapour phase permeates through the polymeric membrane, leaving a concentrate in the first sector; and wherein in the second atmospheric pressure sector a carrier gas flows which drags the distillate in vapour phase becoming saturated; and wherein the distillate has chemical oxygen demand, concentration of total nitrogen and content of boron and sulfur sulfide at least 99% lower than the amine water feed.
Apparatus for manufacturing a titanium alloy bolt, the apparatus including: a feeding device for supplying raw material which is cut into a fixed length from a titanium alloy rod, a heating device for heating the raw material, a loader for carrying the raw material supplied from the feeding device, wherein the loader is configured such that it passes through an interior space of the heating device, a proper container adapted to be charged with the raw material and being vibrated, means for applying a lubricant on the surface of the raw material, heating means for oxidizing the raw material in order to make an oxidized film on the surface of the raw material, a forging device provided with a forging die adapted to fabricate a forging from the heated raw material, a guiding device for conducting the heated raw material into the forging die, a heat-treating device for heat-treating the forging, a peeling device for removing the oxidized layer on the surface of the heat-treated forging, a machining device for machining the desired portions of the forging from which the oxidized layer is peeled, a form rolling device for forming a thread on an outer surface of the machined forging in order to obtain the titanium alloy bolt, and a cleaning device for cleaning the entire surface of the titanium alloy bolt. a feeding device for supplying raw material which is cut into a fixed length from a titanium alloy rod, a heating device for heating the raw material, a loader for carrying the raw material supplied from the feeding device, wherein the loader is configured such that it passes through an interior space of the heating device, a proper container adapted to be charged with the raw material and being vibrated, means for applying a lubricant on the surface of the raw material, heating means for oxidizing the raw material in order to make an oxidized film on the surface of the raw material, a forging device provided with a forging die adapted to fabricate a forging from the heated raw material, a guiding device for conducting the heated raw material into the forging die, a heat-treating device for heat-treating the forging, a peeling device for removing the oxidized layer on the surface of the heat-treated forging, a machining device for machining the desired portions of the forging from which the oxidized layer is peeled, a form rolling device for forming a thread on an outer surface of the machined forging in order to obtain the titanium alloy bolt, and a cleaning device for cleaning the entire surface of the titanium alloy bolt.
Exhaust system having an exhaust pipe and an exhaust cover, mounted on the exhaust pipe, for a motor vehicle, wherein the exhaust cover comprises a tubular inner insert, wherein the exhaust cover comprises a control unit for controlling the sound generating device, wherein the exhaust cover comprises a controllable sound generating device, in particular in the form of a loudspeaker diaphragm, for emitting sound from the exhaust cover, wherein the control unit preferably comprises a digital playback device, wherein the exhaust cover comprises, in particular on the inner insert, a gas flow sensor, wherein the exhaust cover comprises an outer pipe, wherein the inner insert is arranged inside the outer pipe, wherein the inner insert is pushed onto the exhaust pipe, wherein the inner insert is designed in the form of a sound body for emitting sound, wherein the inner insert has a recess, in particular in the form of a through bore, in which the sound generating device is arranged.
A cleaning device for a small electrical appliance, comprising: a cleaning bowl for receiving a part, needing to be cleaned, of the small electrical appliance; a container for storing cleaning liquid to be supplied into the cleaning bowl; a cleaning liquid supply means configured to supply the cleaning liquid stored in the container into the cleaning bowl; a discharge path (57, 127) for returning the cleaning liquid in the cleaning bowl into the container therethrough; and a filter, wherein the discharge path (57, 127) is provided at a downstream thereof with a first flow path via which part of the cleaning liquid passes through the filter and a second flow path via which other part of the cleaning liquid flows over the filter, characterized in that the cleaning device further comprises a second bottom plate that is disposed above a bottom face of the container so as to form a bottom space between the bottom face and the second bottom plate, wherein the second flow path passes through the bottom space to reach a space, above the second bottom plate, in which the cleaning liquid supply means is disposed. a cleaning bowl for receiving a part, needing to be cleaned, of the small electrical appliance; a container for storing cleaning liquid to be supplied into the cleaning bowl; a cleaning liquid supply means configured to supply the cleaning liquid stored in the container into the cleaning bowl; a discharge path (57, 127) for returning the cleaning liquid in the cleaning bowl into the container therethrough; and a filter, wherein the discharge path (57, 127) is provided at a downstream thereof with a first flow path via which part of the cleaning liquid passes through the filter and a second flow path via which other part of the cleaning liquid flows over the filter, characterized in that the cleaning device further comprises a second bottom plate that is disposed above a bottom face of the container so as to form a bottom space between the bottom face and the second bottom plate, wherein the second flow path passes through the bottom space to reach a space, above the second bottom plate, in which the cleaning liquid supply means is disposed.
A trailer coupling including a ball neck, which is movable between an operative position and a rest position and which has a pivot bearing body arranged at a first end and a coupling ball arranged at a second end, a pivot bearing unit, which is arranged fixed to the vehicle and by means of which the pivot bearing body is received such that it is pivotal about a pivot axis between the operative position and the rest position, and a rotation blocking arrangement having at least two rotation blocking bodies, which are guided by means of a guide body to be movable in a guide direction having at least one component in the radial direction relative to the pivot axis, wherein, in the operative position, the rotation blocking bodies are movable into a rotation blocking position by a movement in the guide direction and, in this rotation blocking position, engage with a receptacle in the pivot bearing body in order to block a pivotal movement of the pivot bearing body about the pivot axis relative to the guide body, and are movable into a release position and, in this release position, are not in engagement with the respective receptacle, and having an actuating body which has a respective cam face, that runs transversely to the guide direction, for each of the rotation blocking bodies and which is arranged to be rotatable about the pivot axis and as a result of the rotary movement whereof in a direction of actuation the at least two rotation blocking bodies are movable and urgeable in the guide direction, characterised in that there is provided a rest position latching arrangement that is independent of the rotation blocking arrangement and that, in a free-movement position, permits movement of the pivot bearing body in relation to the guide body and, in a rest position latching position, fixes the pivot bearing body such that it is fixed in rotation relative to the guide body and, at least in the rotary position of the pivot bearing body that corresponds to the rest position, changes over to the latching position automatically, as a result of a spring element provided therein.
A method for diagnosing, predicting or prognosing acute myocardial infarction in an individual comprising: assaying a sample from the individual for cardiac troponin I (cTnI) and detecting a concentration of cTnl in the sample, wherein the sample is a plasma sample or a serum sample from blood; wherein said concentration is determined by a cTnl assay with a limit of detection for said cTnl in said sample of less than 5 pg/ml; and comparing the detected concentration of cTnl to a threshold concentration of 7 pg/ml; wherein a cTnl level over the threshold concentration in a single sample indicates, predicts, or provides a basis for prognosis of AMI; wherein the individual is human. assaying a sample from the individual for cardiac troponin I (cTnI) and detecting a concentration of cTnl in the sample, wherein the sample is a plasma sample or a serum sample from blood; wherein said concentration is determined by a cTnl assay with a limit of detection for said cTnl in said sample of less than 5 pg/ml; and comparing the detected concentration of cTnl to a threshold concentration of 7 pg/ml; wherein a cTnl level over the threshold concentration in a single sample indicates, predicts, or provides a basis for prognosis of AMI; wherein the individual is human.
A compound having a chemical structure according to general formula I: where each bond depicted as " ------ " is a single or double bond as needed to satisfy valence requirements; R 1, R 3 -R 6 and R 8 independently are H, hydroxyl, thiol, C 1 -C 10 alkyl, carboxyalkyl, amino, alkoxy, or halogen; R 2 is an α,β-unsaturated aliphatic ester; X 1 is O, CH 2, S, or NH; and (i) R 7 is O and X 2 is N, or (ii) R 7 and R 8 together with the ring to which they are attached form a naphthyl ring and X 2 is CR 9 where R 9 is phenyl. where each bond depicted as " ------ " is a single or double bond as needed to satisfy valence requirements; R 1, R 3 -R 6 and R 8 independently are H, hydroxyl, thiol, C 1 -C 10 alkyl, carboxyalkyl, amino, alkoxy, or halogen; R 2 is an α,β-unsaturated aliphatic ester; X 1 is O, CH 2, S, or NH; and (i) R 7 is O and X 2 is N, or (ii) R 7 and R 8 together with the ring to which they are attached form a naphthyl ring and X 2 is CR 9 where R 9 is phenyl. (i) R 7 is O and X 2 is N, or (ii) R 7 and R 8 together with the ring to which they are attached form a naphthyl ring and X 2 is CR 9 where R 9 is phenyl.
System consisting of a - cable conduit outlet which is moulded on a car charging plug-in connector or is attached to a charging station, and - a cable conduit for receiving lines (3, 3', 3", 3"'), - a conductor receptacle element being arranged within the cable conduit, which conductor receptacle element has receptacles for the lines (3, 3', 3", 3′′′), the conductor receptacle element having a substantially cylindrical basic shape, and receptacles (6, 6') which run axially in the conductor receptacle element being provided for the lines (3, 3', 3", 3′′′), characterized - in that the cable conduit has, on the outer side, a clamping ring which is arranged in the region of the conductor receptacle element [§12, 24 and Fig. 21] and exerts a radial force on the cable conduit, by way of which the cable conduit is pressed onto the conductor receptacle element, - in that at least one part of the cable conduit runs within the cable conduit outlet, and - in that the clamping ring is arranged in a recess within the cable conduit outlet, and in that the cable conduit outlet has a seal which is arranged on the end side of the cable conduit outlet and protects the system against a penetration of media such as dirt and water. - cable conduit outlet which is moulded on a car charging plug-in connector or is attached to a charging station, and - a cable conduit for receiving lines (3, 3', 3", 3"'), - a conductor receptacle element being arranged within the cable conduit, which conductor receptacle element has receptacles for the lines (3, 3', 3", 3′′′), the conductor receptacle element having a substantially cylindrical basic shape, and receptacles (6, 6') which run axially in the conductor receptacle element being provided for the lines (3, 3', 3", 3′′′), - in that the cable conduit has, on the outer side, a clamping ring which is arranged in the region of the conductor receptacle element [§12, 24 and Fig. 21] and exerts a radial force on the cable conduit, by way of which the cable conduit is pressed onto the conductor receptacle element, - in that at least one part of the cable conduit runs within the cable conduit outlet, and - in that the clamping ring is arranged in a recess within the cable conduit outlet, and in that the cable conduit outlet has a seal which is arranged on the end side of the cable conduit outlet and protects the system against a penetration of media such as dirt and water.
An outdoor unit of a refrigeration cycle apparatus, the outdoor unit being connectable to a load device including an expansion device and an evaporator, the outdoor unit comprising: a refrigerant outlet port and a refrigerant inlet port for connecting to the load device; a first flow path, which is a flow path from the refrigerant inlet port to the refrigerant outlet port, the first flow path being configured to form, together with the load device, a circulation flow path through which refrigerant circulates; a compressor and a condenser disposed on the first flow path in order from the refrigerant inlet port toward the refrigerant outlet port; a second flow path configured to branch from a portion of the first flow path between the condenser and the refrigerant outlet port, and to return, to the compressor, the refrigerant that has passed through the condenser; a first expansion valve, a receiver, and a second expansion valve disposed on the second flow path in order from a branch point where the second flow path is branched from the first flow path; and a controller configured to control the compressor and the first and second expansion valves (71, 72), the controller being configured to notify that the refrigerant is insufficient when a time period for which a degree of opening of the second expansion valve is at an upper limit exceeds a determination time period. a refrigerant outlet port and a refrigerant inlet port for connecting to the load device; a first flow path, which is a flow path from the refrigerant inlet port to the refrigerant outlet port, the first flow path being configured to form, together with the load device, a circulation flow path through which refrigerant circulates; a compressor and a condenser disposed on the first flow path in order from the refrigerant inlet port toward the refrigerant outlet port; a second flow path configured to branch from a portion of the first flow path between the condenser and the refrigerant outlet port, and to return, to the compressor, the refrigerant that has passed through the condenser; a first expansion valve, a receiver, and a second expansion valve disposed on the second flow path in order from a branch point where the second flow path is branched from the first flow path; and a controller configured to control the compressor and the first and second expansion valves (71, 72), the controller being configured to notify that the refrigerant is insufficient when a time period for which a degree of opening of the second expansion valve is at an upper limit exceeds a determination time period.