mhurhangee/patent-ind-claim-en huggingface dataset:
A method for line pressure monitoring in a bidirectionally used line section of a connecting line device in an energy system , in particular in a home energy system, wherein a first energy source device and a first energy sink device are provided on the first side of the bidirectional line section , and wherein a second energy source device and a second energy sink device are provided on the second side of the bidirectional line section , characterized in that by means of two pressure measuring devices , which are provided spatially separated from one another in the bidirectional line section , a first pressure (P1) and a second pressure (P2) prevailing at the locations of the pressure measuring devices are detected, and in that a check of the line pressure in the bidirectional line section is carried out by means of an evaluation of the pressures (P1, P2) detected by the pressure measuring devices , by setting the detected pressures (P1, P2) in relation to one another.
A system for automatic scheduling, having an input-display device , having a server connectable to the input-display device over a network, wherein the input-display device is configured for inputting an appointment time (t F ) and an appointment location (FT) by a user and is configured for determining a current position (X0) of the input-display device , the input-display device is further configured to send the appointment time (t F ), the appointment location (FT) and the current position (X0) to the server , the server is configured to calculate a travel time (t T ) for traveling from the current position (X0) to the appointment location (FT) based on the appointment time (t F ) and the appointment location (FT) and the current position (X0) of the input-display device and real-time data (RD), wherein the real-time data (RD) have traffic-related data (RD) for at least one route section (S1, S2) between the current position (X0) and the appointment location (FT), and to calculate a start time by subtracting the travel time (t T ) and at least one time interval (Δt 1 , Δt 2 ) from the appointment time (t F ), the server is configured to send the start time (t X ) to the input-display device , and the input-display device is configured to output an alarm (A 1 , A 2 , A 3 ) based on the start time (t X ) and the current time (t) characterized in that the server is further configured for receiving current positions (X1, X2) and destinations (F1, F2) from a plurality of vehicles , and for calculating, for each of the plurality of vehicles , a respective route (R1, R2) from the respective current positions (X1, X2) to the respective destinations (F1, F2), wherein the server is further configured, based on the received current positions (X1, X2) and destinations (F1, F2) from the plurality of vehicles , on the calculated routes (R1, R2), and on the current position (X0) for determining at least one transport option (TO) of a transport of the user by means of at least one of the plurality of vehicles to the appointment location (FT), for transmitting the at least one transport option (TO) to the input-display device , for receiving a user selection (SC) of one transport option (TO) from the input-display device , wherein the server is further configured to calculate the travel time (t T ) further based on the selected transport option (TO) and the calculated routes (R1, R2).
Device for filling containers with a filling product, comprising a standing system section and, with respect thereto a rotating system section , on which is arranged at least one filling valve for filling a container to be filled with the filling product, furthermore comprising a rotary distributor for transferring the filling product and preferably a medium from the standing system section onto the rotating system section , wherein the rotary distributor has a distributor housing and a distributor shaft , accommodated at least partially therein, having at least one bore for conducting the filling product and preferably the medium, wherein the distributor housing is arranged on the standing system section and the distributor shaft is arranged on the rotating system section , and on the lower end face of the distributor shaft is arranged a distributor plate in which at least one distributor chamber is defined to which at least one filling product line , preferably furthermore at least one medium line , is attached, wherein on the distributor plate a connection of at least one filling valve is reached via respectively one filling product line , wherein the connection of the filling product line is oriented in the direction of the rotational axis of the distributor shaft . furthermore comprising a rotary distributor for transferring the filling product and preferably a medium from the standing system section onto the rotating system section , wherein the rotary distributor has a distributor housing and a distributor shaft , accommodated at least partially therein, having at least one bore for conducting the filling product and preferably the medium, wherein the distributor housing is arranged on the standing system section and the distributor shaft is arranged on the rotating system section , and on the lower end face of the distributor shaft is arranged a distributor plate in which at least one distributor chamber is defined to which at least one filling product line , preferably furthermore at least one medium line , is attached, wherein on the distributor plate a connection of at least one filling valve is reached via respectively one filling product line , wherein the connection of the filling product line is oriented in the direction of the rotational axis of the distributor shaft .
A composition for use in a method promoting a tolerogenic immune response to an antigen that would otherwise cause an undesired immune response when administered to a subject, wherein: (a) the composition comprises synthetic nanocarriers coupled to: rapamycin or a rapamycin analog at a load of no more than 25% (w/w); and MHC Class II-restricted epitopes of the said antigen at a load of no more than 25% (w/w); and (b) the composition is in an amount effective to generate CD8+ regulatory T cells specific for said antigen in the subject. (a) the composition comprises synthetic nanocarriers coupled to: rapamycin or a rapamycin analog at a load of no more than 25% (w/w); and MHC Class II-restricted epitopes of the said antigen at a load of no more than 25% (w/w); and (b) the composition is in an amount effective to generate CD8+ regulatory T cells specific for said antigen in the subject.
Apparatus for drying high moisture, low calorific value lignite for a generating set and recovering water contained therein, comprising a rotary steam tube dryer , a washing cooling tower , a coal mill , a 1st bag filter , a 2nd bag filter , a weighing surge bunker , a wet coal bunker , a nitrogen gas heater and a pulverized coal collecting tank ; wherein the input end of the rotary steam tube dryer is connected with the wet coal bunker , the upper portion and the lower portion of the other end of the rotary steam tube dryer is connected with the 1st bag filter and the weighing surge bunker respectively, the upper portion of the 1st bag filter is connected to the washing cooling tower , the weighing surge bunker is connected to the coal mill , one side of the coal mill is connected to the nitrogen gas heater , the top of the coal mill is connected to the 2nd bag filter , the upper portion of the 2nd bag filter is connected to the washing cooling tower and the other side thereof is connected to the inlet of the nitrogen gas heater , and the lower portion of the 2nd bag filter is connected to the pulverized coal collecting tank ; the upper portion of the 1st bag filter is connected to the washing cooling tower , and the lower portion thereof is connected to the pulverized coal collecting tank ; one side of the washing cooling tower is connected to the nitrogen gas heater .
A suction device configured as a concave body comprising opposite lateral portions which define a bottom edge and a front edge , wherein said bottom edge and said front edge delimit the access to an inner cavity of said suction device , said suction device comprising an external shell and an internal shell mutually coupled in a spaced position so as to delimit between them an interspace , a suction port which extends externally to said suction device starting from said external shell , said suction port being configured to be connected to a suction source and being in fluid communication with said interspace , said internal shell delimiting a plurality of through-openings which are in fluid communication with said suction port through said interspace , wherein said suction device is configured to be positioned at one of the chin or nose of a patient, wherein said suction port delimits at least an opening passing through said external shell and wherein said internal shell has an inner portion without through-openings , said inner portion facing at least on said at least an opening . wherein said suction port delimits at least an opening passing through said external shell and wherein said internal shell has an inner portion without through-openings , said inner portion facing at least on said at least an opening .
An ignition plug comprising: a tubular insulator having an axial hole extending in a direction of an axial line (CL1); a center electrode inserted into a forward end portion of the axial hole ; and a metallic shell provided around the insulator and having a protrusion protruding radially inward, wherein the insulator has an engagement portion which is engaged directly or indirectly with a receiving surface of the protrusion which is a rear-end-side surface thereof, and an intermediate trunk portion extending rearward from a rear end of the engagement portion , the metallic shell has, on its outer circumference, an attachment screw portion located on a radially outer side of the protrusion , a seating portion located rearward of the screw portion and projecting radially outward, and a tube portion located between the screw portion and the seating portion , the tube portion being located on the radially outer side of the intermediate trunk portion and having a diameter smaller than that of the seating portion , and the screw portion has a screw diameter of 10 mm or less, the ignition plug being characterized in that a relation A ≤ 1.70 and a relation B ≥ 1.20 are satisfied, where A is a thickness in mm of the metallic shell along a direction which passes through a center (CP) of the receiving surface and is orthogonal to the axial line (CL1) on a cross section including the axial line (CL1), and B is a minimum thickness in mm of the metallic shell at the tube portion along the direction orthogonal to the axial line (CL1). a tubular insulator having an axial hole extending in a direction of an axial line (CL1); a center electrode inserted into a forward end portion of the axial hole ; and a metallic shell provided around the insulator and having a protrusion protruding radially inward, wherein the insulator has an engagement portion which is engaged directly or indirectly with a receiving surface of the protrusion which is a rear-end-side surface thereof, and an intermediate trunk portion extending rearward from a rear end of the engagement portion , the metallic shell has, on its outer circumference, an attachment screw portion located on a radially outer side of the protrusion , a seating portion located rearward of the screw portion and projecting radially outward, and a tube portion located between the screw portion and the seating portion , the tube portion being located on the radially outer side of the intermediate trunk portion and having a diameter smaller than that of the seating portion , and the screw portion has a screw diameter of 10 mm or less, the ignition plug being characterized in that a relation A ≤ 1.70 and a relation B ≥ 1.20 are satisfied, where A is a thickness in mm of the metallic shell along a direction which passes through a center (CP) of the receiving surface and is orthogonal to the axial line (CL1) on a cross section including the axial line (CL1), and B is a minimum thickness in mm of the metallic shell at the tube portion along the direction orthogonal to the axial line (CL1).
A storage stable mixture, comprising either (a1) a powderous formulation comprising (i) 1,3-propanediol mononitrate, and (ii) silica, wherein the is 1,3-propanediol mononitrate absorbed onto the silica, and (a2) rice hulls and/ or rice bran, or (b1) a liquid formulation comprising (i) 1,3-propanediol mononitrate, and (ii) an edible solvent, preferably propylene glycol or water, and (b2) rice hulls and/ or rice bran. (a1) a powderous formulation comprising (i) 1,3-propanediol mononitrate, and (ii) silica, wherein the is 1,3-propanediol mononitrate absorbed onto the silica, and (i) 1,3-propanediol mononitrate, and (ii) silica, (a2) rice hulls and/ or rice bran, or (b1) a liquid formulation comprising (i) 1,3-propanediol mononitrate, and (ii) an edible solvent, preferably propylene glycol or water, and (i) 1,3-propanediol mononitrate, and (ii) an edible solvent, preferably propylene glycol or water, and (b2) rice hulls and/ or rice bran.
A stabilized formulation of ADAMTS13 for use in a method of treating or preventing hereditary or acquired thrombotic thrombocytopenic purpura (TTP) or stroke, wherein said method comprises administration of the stabilized ADAMTS13 formulation, wherein said formulation comprises less than 100 mM of a pharmaceutically acceptable salt.
An electric machine comprising: a stator having a fully non-magnetic core and stator windings formed of a non-superconducting transposed conductor to reduce eddy current losses; and a rotor having a fully non-magnetic core and superconducting windings or superconducting magnets which produce a magnetic field for interaction with the stator windings ; characterized in that the electric machine further comprises a cryogenic cooling system comprising a cooler that is arranged to cool both the stator windings to reduce conduction losses in the stator windings and the superconducting windings or magnets of the rotor to maintain the superconducting windings or magnets in a superconducting state. a stator having a fully non-magnetic core and stator windings formed of a non-superconducting transposed conductor to reduce eddy current losses; and a rotor having a fully non-magnetic core and superconducting windings or superconducting magnets which produce a magnetic field for interaction with the stator windings ; characterized in that the electric machine further comprises a cryogenic cooling system comprising a cooler that is arranged to cool both the stator windings to reduce conduction losses in the stator windings and the superconducting windings or magnets of the rotor to maintain the superconducting windings or magnets in a superconducting state.
Device for determining and/or setting an accuracy of a monitoring device installed in a vehicle, in particular a digital tachograph, wherein at least one system for detecting the distance travelled by the vehicle is disposed in the vehicle and connected to the monitoring device , comprising a mobile detection unit disposable in the vehicle and a measuring device disposable outside the vehicle connectable to the monitoring device , wherein the detection unit has a receiving and sending unit for wireless, bidirectional communication with the measuring device and an interface to the monitoring device , and wherein, by means of the interface, data detected by the system can be read from the monitoring device , wherein the measuring device and the detection unit are configured to exchange commands and data via a communications protocol, the detection unit is configured to determine at least one parameter from the data detected during a test procedure and to transmit the at least one parameter determined to the measuring device , and the measuring device has an interface to a test stand for measuring a distance travelled by the vehicle and is configured to determine a comparative value corresponding to the at least one parameter from the measured data detected using the test stand .
A method for diagnosing Alzheimer's disease comprising the steps of: (i) determining an expression level of at least one miRNA in platelet-concentrate/platelet-rich plasma derived from a whole blood sample of a subject, wherein the at least one miRNA has a nucleotide sequence according to SEQ ID NO: 19 (hsa-miR-21-5p), and (ii) comparing said expression level to a reference expression level determined in platelet-concentrate/platelet-rich plasma derived from a whole blood sample of one or more healthy reference subjects. (i) determining an expression level of at least one miRNA in platelet-concentrate/platelet-rich plasma derived from a whole blood sample of a subject, wherein the at least one miRNA has a nucleotide sequence according to SEQ ID NO: 19 (hsa-miR-21-5p), and (ii) comparing said expression level to a reference expression level determined in platelet-concentrate/platelet-rich plasma derived from a whole blood sample of one or more healthy reference subjects.
A process for the preparation of compound 18, having the structure: comprising reacting compound 17, having the structure: with ammonia and a peptide coupling reagent which is N -(3-dimethylaminopropyl)- N'- ethylcarbodiimide hydrochloride/ N -hydroxysuccinimide, to form compound 18.
A method of a terminal in a wireless communication system, the method comprising: communicating (S534, 1120) with a gateway based on a first packet data network, PDN, connection, related to a first communication system; further characterized by establishing (S538, 1160) a bearer with the gateway on a second communication system while the terminal is in a radio resource control, RRC, connection state on the first communication system; establishing (S540, 1160) a second PDN connection related to the second communication system; performing switching (S544, 1170) from the first communication system to the second communication system; transmitting (S546, 1170) a link start marker packet to the gateway based on the second PDN connection; and transmitting and receiving (S552, 1180) data using the gateway based on the second PDN connection. communicating (S534, 1120) with a gateway based on a first packet data network, PDN, connection, related to a first communication system; further characterized by establishing (S538, 1160) a bearer with the gateway on a second communication system while the terminal is in a radio resource control, RRC, connection state on the first communication system; establishing (S540, 1160) a second PDN connection related to the second communication system; performing switching (S544, 1170) from the first communication system to the second communication system; transmitting (S546, 1170) a link start marker packet to the gateway based on the second PDN connection; and transmitting and receiving (S552, 1180) data using the gateway based on the second PDN connection.
A patch for attaching to teeth or a surrounding part of teeth, which comprises: a drug layer for delivering drugs to teeth; and a backing layer positioned on the opposite side of a tooth attachment surface of the drug layer, and including both a water-soluble polymer and a water-insoluble polymer, wherein the backing layer is degradable by tooth brushing, a breakable portion is formed on the backing layer, and the breakable portion includes prominence and depression or bubbles. a drug layer for delivering drugs to teeth; and a backing layer positioned on the opposite side of a tooth attachment surface of the drug layer, and including both a water-soluble polymer and a water-insoluble polymer, wherein the backing layer is degradable by tooth brushing, a breakable portion is formed on the backing layer, and the breakable portion includes prominence and depression or bubbles.
An industrial automation device comprising means for: receiving operational information associated with an industrial asset, wherein the operational information is received from a sensor device via a first wireless connection ; transmitting the operational information to a cloud server via a second wireless connection ; transmitting internal technical information associated with the industrial automation device to the cloud server via the second wireless connection ; and adjusting one or more control parameter settings of the industrial automation device based on the received operational information and the internal technical information. receiving operational information associated with an industrial asset, wherein the operational information is received from a sensor device via a first wireless connection ; transmitting the operational information to a cloud server via a second wireless connection ; transmitting internal technical information associated with the industrial automation device to the cloud server via the second wireless connection ; and adjusting one or more control parameter settings of the industrial automation device based on the received operational information and the internal technical information.
A dense hydrogen separation membrane comprising: a dense hydrogen separation membrane layer ; a separation membrane protective layer , characterized in that the protective layer is a cermet form which is prepared by coating a surface of said dense hydrogen separation membrane layer concurrently with an aluminum oxide and a metal layer by using RF power sputter; wherein the cermet is adapted to cause surface migration of hydrogen molecules and hydrogen atoms and has a columnar structure wherein the separation membrane protective layer has a thickness of 50 nm to 3 μm, and the average diameter of metal and cermet columns ranges from 5 nm to 2 μm and voids are formed between cermet columns to expose a part of the surface of the dense hydrogen separation membrane layer . a dense hydrogen separation membrane layer ; a separation membrane protective layer , characterized in that the protective layer is a cermet form which is prepared by coating a surface of said dense hydrogen separation membrane layer concurrently with an aluminum oxide and a metal layer by using RF power sputter; wherein the cermet is adapted to cause surface migration of hydrogen molecules and hydrogen atoms and has a columnar structure wherein the separation membrane protective layer has a thickness of 50 nm to 3 μm, and the average diameter of metal and cermet columns ranges from 5 nm to 2 μm and voids are formed between cermet columns to expose a part of the surface of the dense hydrogen separation membrane layer .