mhurhangee/ep-ind-claims huggingface dataset:
A service packet transmission method performed by a source mobile edge computing network element, the method comprising the steps of: • after receiving from a source user plane network element a second uplink service packet to be forwarded by the source mobile edge computing network element to a source application server, receiving (S 230) a first uplink service packet via the source user plane network element from a target user plane network element, wherein the second uplink service packet is the last uplink service packet sent by the source mobile edge computing network element to the source application server, • sending (S 250) the first uplink service packet to a target mobile edge computing network element, • wherein, before the sending (S 250) the first uplink service packet to the target mobile edge computing network element, the method further comprises: ∘ receiving (S 240) second indication information via the source user plane network element from the target user plane network element, wherein the second indication information indicates that the sending of the first uplink service packet by the target user plane network element ends, • after receiving (S 240) the second indication information, sending (S 260) first indication information to the target mobile edge computing network element, wherein the first indication information indicates that the sending of the first uplink service packet by the source mobile edge computing network element ends. • after receiving from a source user plane network element a second uplink service packet to be forwarded by the source mobile edge computing network element to a source application server, receiving (S 230) a first uplink service packet via the source user plane network element from a target user plane network element, wherein the second uplink service packet is the last uplink service packet sent by the source mobile edge computing network element to the source application server, • sending (S 250) the first uplink service packet to a target mobile edge computing network element, • wherein, before the sending (S 250) the first uplink service packet to the target mobile edge computing network element, the method further comprises: ∘ receiving (S 240) second indication information via the source user plane network element from the target user plane network element, wherein the second indication information indicates that the sending of the first uplink service packet by the target user plane network element ends, ∘ receiving (S 240) second indication information via the source user plane network element from the target user plane network element, wherein the second indication information indicates that the sending of the first uplink service packet by the target user plane network element ends, • after receiving (S 240) the second indication information, sending (S 260) first indication information to the target mobile edge computing network element, wherein the first indication information indicates that the sending of the first uplink service packet by the source mobile edge computing network element ends.
Data logger for acquiring and recording sensor data associated with a transport container, comprising at least one first sensor, a memory for the storage of sensor data acquired by the at least one first sensor, a radio-frequency module for wirelessly transmitting said sensor data, a battery, at least one second sensor for sensing a transport mode of the transport container, and an energy management circuitry that is connected with the at least one second sensor and with the radio-frequency module, wherein the energy management circuitry is configured to switch between a plurality of operation modes, wherein the plurality of operation modes comprise a default operation mode, in which the radio-frequency module sends sensor data according to a defined time pattern that is independent of a transport mode sensed by said at least one second sensor, wherein the plurality of operation modes further comprise at least one transport operation mode, in which the radio-frequency module sends sensor data according to a time pattern that is dependent on the transport mode sensed by said at least one second sensor and wherein the energy management circuitry is configured to switch from a transport operation mode to the default operation mode, if no sensor data is received from said at least one second sensor during a defined time period.
An inner barrel structure of an engine nacelle, the inner barrel structure comprising: an inner skin; a truss core disposed at an inner surface of the inner skin such that a plurality of cavities are defined therebetween; and a plurality of septa (704, 802, 902) respectively disposed in the cavities, characterized in that each septum includes a stiffening portion, wherein the stiffening portion includes acoustically configured perforations. an inner skin; a truss core disposed at an inner surface of the inner skin such that a plurality of cavities are defined therebetween; and a plurality of septa (704, 802, 902) respectively disposed in the cavities, characterized in that each septum includes a stiffening portion, wherein the stiffening portion includes acoustically configured perforations.
A nitrogen removal method comprising adding a solid material containing a biodegradable resin as a hydrogen donor to one water system containing 50 mg/L or more of ammonium nitrogen in which bacteria cells having an ability to decompose a biodegradable resin, bacteria cells having nitrification capabilities, and bacteria cells having denitrification capabilities live together to allow a nitrification reaction and a denitrification reaction to coexist in the water system and to cause both a nitrification reaction and a denitrification reaction in the one water system without separately providing an anaerobic treatment tank and an aerobic treatment tank, wherein the nitrogen removal method is applied to wastewater treatment, the biodegradable resin is poly-3-hydroxyalkanoate, which is in the form of granules or pellets, the water system has a dissolved oxygen concentration of at least 1.5 ppm, the water system has a ratio (weight ratio) of an amount of dissolved carbon to an amount of dissolved nitrogen of 10 or less, and the water system has a pH of from 5 to 9. wherein the nitrogen removal method is applied to wastewater treatment, the biodegradable resin is poly-3-hydroxyalkanoate, which is in the form of granules or pellets, the water system has a dissolved oxygen concentration of at least 1.5 ppm, the water system has a ratio (weight ratio) of an amount of dissolved carbon to an amount of dissolved nitrogen of 10 or less, and the water system has a pH of from 5 to 9.
A method for determining prognosis of a subject having colorectal cancer, comprising: (a) measuring the number of CD4+ OX40+ Foxp3+ lymphocytes in a sample comprising cancer cells and lymphocytes obtained from the subject; and (b) determining the prognosis of the subject based on the number of CD4+ OX40+ Foxp3+ lymphocytes in the sample, as compared with a reference, wherein an increased number of CD4+ OX40+ Foxp3+ lymphocytes in the sample indicates that the subject may have an improved prognosis. (a) measuring the number of CD4+ OX40+ Foxp3+ lymphocytes in a sample comprising cancer cells and lymphocytes obtained from the subject; and (b) determining the prognosis of the subject based on the number of CD4+ OX40+ Foxp3+ lymphocytes in the sample, as compared with a reference, wherein an increased number of CD4+ OX40+ Foxp3+ lymphocytes in the sample indicates that the subject may have an improved prognosis.
Cemented carbide consisting of: a first hard phase; a binder phase; and optionally a second hard phase, wherein the first hard phase consists of tungsten carbide particles, the binder phase consists of cobalt, nickel, iron, and copper as constituent elements, an average content of each of the constituent elements in the binder phase is not lower than 10 atomic % and not higher than 30 atomic %, a content of the binder phase is not lower than 4 mass % and not higher than 15 mass % of a total amount of the cemented carbide, the cemented carbide contains no second hard phase, or a content of the second hard phase in the cemented carbide is equal to or lower than 2 mass % of a total amount of the cemented carbide, and the second hard phase is composed of a compound containing at least one type of a metal element selected from the group consisting of a group-IV element in a periodic table, a group-V element in the periodic table, and a group-VI element in the periodic table except for tungsten and at least one type of an element selected from the group consisting of carbon, nitrogen, and oxygen, wherein the group-IV element of the periodic table includes titanium, zirconium, and hafnium, wherein the group-V element of the periodic table includes vanadium, niobium, and tantalum, and wherein the group-VI element of the periodic table includes chromium and molybdenum. a first hard phase; a binder phase; and optionally a second hard phase, wherein the first hard phase consists of tungsten carbide particles, the binder phase consists of cobalt, nickel, iron, and copper as constituent elements, an average content of each of the constituent elements in the binder phase is not lower than 10 atomic % and not higher than 30 atomic %, a content of the binder phase is not lower than 4 mass % and not higher than 15 mass % of a total amount of the cemented carbide, the cemented carbide contains no second hard phase, or a content of the second hard phase in the cemented carbide is equal to or lower than 2 mass % of a total amount of the cemented carbide, and the second hard phase is composed of a compound containing at least one type of a metal element selected from the group consisting of a group-IV element in a periodic table, a group-V element in the periodic table, and a group-VI element in the periodic table except for tungsten and at least one type of an element selected from the group consisting of carbon, nitrogen, and oxygen, wherein the group-IV element of the periodic table includes titanium, zirconium, and hafnium, wherein the group-V element of the periodic table includes vanadium, niobium, and tantalum, and wherein the group-VI element of the periodic table includes chromium and molybdenum.
A treatment solution for insulation coating for grain oriented electrical steel sheet, comprising: at least one member selected from phosphates of Mg, Ca, Ba, Sr, Zn, Al, and Mn; and colloidal silica in a proportion of 0.2 to 10 mol in terms of SiO 2 and a titanium chelate compound in a proportion of 0.01 to 4.0 mol in terms of Ti, relative to PO 4: 1 mol in the phosphates. at least one member selected from phosphates of Mg, Ca, Ba, Sr, Zn, Al, and Mn; and colloidal silica in a proportion of 0.2 to 10 mol in terms of SiO 2 and a titanium chelate compound in a proportion of 0.01 to 4.0 mol in terms of Ti, relative to PO 4: 1 mol in the phosphates.
Fluid permeable heater assembly for aerosol-generating systems, the fluid permeable heater assembly comprising: a substrate comprising an opening through the substrate, an electrically conductive substantially flat filament arrangement arranged over the opening, and clamping means mechanically fixing the filament arrangement to the substrate, wherein the clamping means are electrically conductive and serve as electrical contacts for providing a heating current through the filament arrangement. a substrate comprising an opening through the substrate, an electrically conductive substantially flat filament arrangement arranged over the opening, and clamping means mechanically fixing the filament arrangement to the substrate, wherein the clamping means are electrically conductive and serve as electrical contacts for providing a heating current through the filament arrangement.
An oligonucleotide aptamer for targeting a peptide presented by a major histocompatibility complex on the surface of a cell comprising the sequence of SEQ ID NO: 1, wherein the peptide is derived from melanoma-associated antigen A3 (MAGE-A3) and has the amino acid sequence of SEQ ID NO: 4.
A catheter-based ultrasonic transducer array assembly, said assembly comprising: at least one matching layer; a backing member; a piezoelectric member having elementary transducers aligned in one direction in azimuth and also having electrodes, the piezoelectric member being sandwiched between the at least one matching layer and the backing member; at least one stiffening element disposed rearwardly of said piezoelectric member so as to provide stiffening of said assembly; a flexible circuit for providing connection between the electrodes of the piezoelectric member and at least one external cable; and a surrounding protective cover of a circular cross section to match a diameter of the catheter; wherein the transducer assembly has an azimuthal axis and has, in use, an angular position, wherein an image of the transducer assembly is derived using imaging energy of predetermined wavelengths, and wherein said at least one stiffening element of said assembly comprises at least one element opaque to said predetermined wavelengths and oriented along the azimuthal axis of the transducer assembly to enable a user to view the at least one element in an image of the transducer assembly derived from an output of the transducer assembly and thus determine the angular position of the transducer assembly. at least one matching layer; a backing member; a piezoelectric member having elementary transducers aligned in one direction in azimuth and also having electrodes, the piezoelectric member being sandwiched between the at least one matching layer and the backing member; at least one stiffening element disposed rearwardly of said piezoelectric member so as to provide stiffening of said assembly; a flexible circuit for providing connection between the electrodes of the piezoelectric member and at least one external cable; and a surrounding protective cover of a circular cross section to match a diameter of the catheter; wherein the transducer assembly has an azimuthal axis and has, in use, an angular position, wherein an image of the transducer assembly is derived using imaging energy of predetermined wavelengths, and wherein said at least one stiffening element of said assembly comprises at least one element opaque to said predetermined wavelengths and oriented along the azimuthal axis of the transducer assembly to enable a user to view the at least one element in an image of the transducer assembly derived from an output of the transducer assembly and thus determine the angular position of the transducer assembly.
A die casting aluminum alloy, consisting of constituents with the following mass percentages: silicon: 4.0% to 10.0%; magnesium: 0.2% to 1.0%; copper: ≤0.1%; manganese: ≤0.1%; zinc: ≤0.1%; iron: 0.5% to 1.0%; titanium: 0.05% to 0.2%; and inevitable impurities: ≤0.15%; and the rest: aluminum. silicon: 4.0% to 10.0%; magnesium: 0.2% to 1.0%; copper: ≤0.1%; manganese: ≤0.1%; zinc: ≤0.1%; iron: 0.5% to 1.0%; titanium: 0.05% to 0.2%; and inevitable impurities: ≤0.15%; and the rest: aluminum.
A runner for moving a sliding canopy in a pergola type structure with sticks, by means of a pulling belt, along beams which make up the pergola type structure, said runner comprises: - a body with sliding elements and an upper projection, and - at least one clasp to fasten said pulling belt, characterised in - two such clasps, each clasp exhibiting a side and is able to be coupled to a side of the upper projection both sides facing each other, to fasten said belt, between said clasp and the side of the upper projection. - a body with sliding elements and an upper projection, and - at least one clasp to fasten said pulling belt, characterised in - two such clasps, each clasp exhibiting a side and is able to be coupled to a side of the upper projection both sides facing each other, to fasten said belt, between said clasp and the side of the upper projection.
A thermal transfer ink ribbon comprising: a backcoat layer (155e, 1155e); a ribbon base layer (155a, 1155a) formed on the backcoat layer; a release layer (155b, 1155b) formed on the ribbon base layer and containing resin and wax; an ink layer (155c, 1155c) formed on the release layer and containing a first resin being transparent or translucent and a second resin being transparent or translucent, the second resin having an acid value lower than that of the first resin and having a melting point lower than that of the first resin; an aluminum layer (155f, 1155f) formed on the ink layer; and an adhesive layer (155d, 1155d) formed on the aluminum layer and containing resin and wax. a backcoat layer (155e, 1155e); a ribbon base layer (155a, 1155a) formed on the backcoat layer; a release layer (155b, 1155b) formed on the ribbon base layer and containing resin and wax; an ink layer (155c, 1155c) formed on the release layer and containing a first resin being transparent or translucent and a second resin being transparent or translucent, the second resin having an acid value lower than that of the first resin and having a melting point lower than that of the first resin; an aluminum layer (155f, 1155f) formed on the ink layer; and an adhesive layer (155d, 1155d) formed on the aluminum layer and containing resin and wax.
A method performed at a trusted authority, the method comprising: establishing a wireless communication session with a data authority, the data authority integrated in a nearby vehicle; performing a discovery process with the data authority, the discovery process informing the trusted authority of a plurality of data types that are available to the trusted authority, each of the plurality of data types being related to an attribute of the nearby vehicle, wherein an availability of at least one of the data types of the plurality of data types is controlled by the owner of the nearby vehicle; receiving information on a data type of interest, the data type of interest among the plurality of data types that are available; performing an access request process, the access request process determining the access rights granted by the data authority to the trusted authority for the data type of interest; requesting data corresponding to the data type of interest; receiving the data corresponding to the requested data type of interest; and presenting the data to a public official in the course of their official public duties in accordance with the access rights granted to the data. establishing a wireless communication session with a data authority, the data authority integrated in a nearby vehicle; performing a discovery process with the data authority, the discovery process informing the trusted authority of a plurality of data types that are available to the trusted authority, each of the plurality of data types being related to an attribute of the nearby vehicle, wherein an availability of at least one of the data types of the plurality of data types is controlled by the owner of the nearby vehicle; receiving information on a data type of interest, the data type of interest among the plurality of data types that are available; performing an access request process, the access request process determining the access rights granted by the data authority to the trusted authority for the data type of interest; requesting data corresponding to the data type of interest; receiving the data corresponding to the requested data type of interest; and presenting the data to a public official in the course of their official public duties in accordance with the access rights granted to the data.
A contactless integrated circuit comprising: modulation and demodulation circuits (RRM, UHRC) configured to connect to a HF antenna circuit to emit and receive HF signals by inductive coupling in a reader mode, modulation and demodulation circuits (URM, UHRC) configured to connect to a UHF antenna (UA, A1) to emit and receive UHF signals by electric coupling in a reader mode, a data processing circuit connected to the modulation and demodulation circuits, and configured to provide data to be emitted to the modulation circuits, and to process received signals, transmitted by the demodulation circuits, characterized in that the demodulation circuits comprising a common demodulation circuit (UHRC) to equally process signals received by the UHF antenna and the HF antenna circuit. modulation and demodulation circuits (RRM, UHRC) configured to connect to a HF antenna circuit to emit and receive HF signals by inductive coupling in a reader mode, modulation and demodulation circuits (URM, UHRC) configured to connect to a UHF antenna (UA, A1) to emit and receive UHF signals by electric coupling in a reader mode, a data processing circuit connected to the modulation and demodulation circuits, and configured to provide data to be emitted to the modulation circuits, and to process received signals, transmitted by the demodulation circuits, characterized in that the demodulation circuits comprising a common demodulation circuit (UHRC) to equally process signals received by the UHF antenna and the HF antenna circuit.
A tank assembly for a gas turbine engine, the tank assembly comprising: a tank (102, 402, 502) having a top surface, a bottom surface and two side surfaces interconnecting the top and bottom surfaces; a plurality of restraints (112, 114, 212, 312, 412, 512) spaced apart along a length of the tank (102, 402, 502), each including a fixing part for securing the tank (102, 402, 502) to a support structure, the plurality of restraints (112, 114, 212, 312, 412, 512) including a first restraint and at least one second restraint; wherein the first restraint has a first stiffness in a direction along the length of the tank (102, 402, 502); the or each second restraint has a second stiffness in a direction along the length of the tank (102, 402, 502) that is less than the first stiffness, such that the or each second restraint flexes to a greater extent than the first restraint upon expansion or contraction of the tank (102, 402, 502) relative to the support structure; each restraint (112, 114, 212, 312, 412, 512) is connected to the tank (102, 402, 502) over a connected extent; and, the restraints (112, 114, 212, 312, 412, 512) each include two side portions (120, 220, 320, 420), each of the side portions (120, 220, 320, 420) including the connected extent and an unconnected extent that is not directly connected to the tank (102, 402, 502), wherein the plurality of restraints (112, 114, 212, 312) are U-shaped, including the two side portions (120, 220, 320) and a top portion (118, 218, 318), and extend around the top and the side surfaces of the tank. a tank (102, 402, 502) having a top surface, a bottom surface and two side surfaces interconnecting the top and bottom surfaces; a plurality of restraints (112, 114, 212, 312, 412, 512) spaced apart along a length of the tank (102, 402, 502), each including a fixing part for securing the tank (102, 402, 502) to a support structure, the plurality of restraints (112, 114, 212, 312, 412, 512) including a first restraint and at least one second restraint; wherein the first restraint has a first stiffness in a direction along the length of the tank (102, 402, 502); the or each second restraint has a second stiffness in a direction along the length of the tank (102, 402, 502) that is less than the first stiffness, such that the or each second restraint flexes to a greater extent than the first restraint upon expansion or contraction of the tank (102, 402, 502) relative to the support structure; each restraint (112, 114, 212, 312, 412, 512) is connected to the tank (102, 402, 502) over a connected extent; and, the restraints (112, 114, 212, 312, 412, 512) each include two side portions (120, 220, 320, 420), each of the side portions (120, 220, 320, 420) including the connected extent and an unconnected extent that is not directly connected to the tank (102, 402, 502), wherein the plurality of restraints (112, 114, 212, 312) are U-shaped, including the two side portions (120, 220, 320) and a top portion (118, 218, 318), and extend around the top and the side surfaces of the tank.