mhurhangee/ep-ind-claims huggingface dataset:
A matrix material for the safe interim and/or final storage of radioactive waste suitable for the embedment of radioactive waste, characterized in that the matrix material comprises graphite and at least one inorganic binder, selected from glasses, aluminosilicates, silicates and borates, wherein the matrix material comprises 60 % by weight to 90 % by weight of graphite and 10 % by weight to 40 % by weight of inorganic binder and wherein the density of the matrix material is at least 97 % of the value of the theoretical density.
Method for an exchange of data between a mobile device and an additional mobile device assigned to a means for passenger transport (200A, 200B, 200C,...), comprising the steps of: A) scanning a quick response code providing a unique data element that is assigned to the position of the quick response code with a mobile device and establishing a connection between the mobile device and a data server; B) exchanging real time information between a means for passenger transport (200A, 200B, 200C,...) and the data server, said real time information comprising a position signal of the means for passenger transport; and C) creating a second data connection between the mobile device and the additional mobile device assigned to the means for passenger transport which is selected by the data server to be the closest means for passenger transport to a passenger using the mobile device based on the real time information and the unique data element, in order to allow the passenger to directly contact a driver of the means for passenger transport. A) scanning a quick response code providing a unique data element that is assigned to the position of the quick response code with a mobile device and establishing a connection between the mobile device and a data server; B) exchanging real time information between a means for passenger transport (200A, 200B, 200C,...) and the data server, said real time information comprising a position signal of the means for passenger transport; and C) creating a second data connection between the mobile device and the additional mobile device assigned to the means for passenger transport which is selected by the data server to be the closest means for passenger transport to a passenger using the mobile device based on the real time information and the unique data element, in order to allow the passenger to directly contact a driver of the means for passenger transport.
Spiral conveyor construction comprising a drive tower and an endless conveyor belt, around which drive tower the endless conveyor belt assembled from a plurality of substantially identical modular belt links is arranged, where the endless conveyor belt is guided on a conveying path, where at least a part of the conveying path is surrounding the drive tower, where the drive tower can rotate around a vertical axis, such that the drive tower engages a side surface of the endless conveyor belt thereby propelling the endless conveyor belt along the conveying path and where spaced along the periphery of the drive tower are arranged vertical engagement members, where at least some of these engagement members has a vertically arranged rib projecting radially away from the drive tower, characterized in that on a lower section of the drive tower adjacent at least some of the engagement members with projecting ribs, blocks are provided, said blocks near the bottom of the drive tower radially project further from the drive tower than the engagement members, and where the blocks are provided with a radially extending secondary rib (43,37,44) which secondary ribs (43,37,44) extend from the block and increases their extend upwards from zero extend to an extend corresponding to the radially extend of the rib on the adjacent engagement member near the upper end of the block, and where the secondary ribs (43,37,44) and/or the ribs on the engagement members engages and propels the endless conveyor belt along the conveying path and where the peripheral distance between the ribs on the engagement members and the secondary ribs (43,37,44) on adjacent blocks corresponds to the length in the travelling direction of a modular belt link from which the endless conveyor belt is assembled.
A method of wireless communication comprising: receiving, from a serving evolved Node B, eNB, information comprising one or more transmission characteristics of at least one non-serving eNB, wherein the transmission characteristics comprise one or more interference characteristics of the at least one non-serving eNB, and wherein the information further indicates whether subframes from the at least one non-serving eNB are based on a legacy carrier type, LCT, a new carrier type, NCT, or the LCT and the NCT; and performing at least one of interference cancellation, demodulation, or providing an improved channel quality indicator, CQI, based on the received information comprising the one or more interference characteristics. receiving, from a serving evolved Node B, eNB, information comprising one or more transmission characteristics of at least one non-serving eNB, wherein the transmission characteristics comprise one or more interference characteristics of the at least one non-serving eNB, and wherein the information further indicates whether subframes from the at least one non-serving eNB are based on a legacy carrier type, LCT, a new carrier type, NCT, or the LCT and the NCT; and performing at least one of interference cancellation, demodulation, or providing an improved channel quality indicator, CQI, based on the received information comprising the one or more interference characteristics.
Zoledronic acid for use in treating complex regional pain syndrome in a mammal, wherein an oral dosage form containing zoledronic acid is administered in a total monthly dose of zoledronic acid that is about 100 mg/m 2 to about 600 mg/m 2 based upon the body surface area of the mammal.
A process for the preparation of a compound 34 comprising: (a) reacting compound 26 with compound 32 in the presence of T3P® and pyridine using 2-methyl tetrahydrofuran as the solvent, wherein the reaction temperature is maintained between about 42 °C and 53 °C, and wherein the reaction is allowed proceed for at least 2 hours, to produce compound 33 and (b) treating compound 33 with NaOMe/MeOH in 2-methyl tetrahydrofuran. (a) reacting compound 26 with compound 32 in the presence of T3P® and pyridine using 2-methyl tetrahydrofuran as the solvent, wherein the reaction temperature is maintained between about 42 °C and 53 °C, and wherein the reaction is allowed proceed for at least 2 hours, to produce compound 33 and (b) treating compound 33 with NaOMe/MeOH in 2-methyl tetrahydrofuran.
A control apparatus for controlling a motion of a robot device, the robot device including a suction head configured to pick up a workpiece using compressed air and a pressure sensor to detect pressure of the compressed air, the control apparatus comprising: a movement controller configured to cause the robot device to move the suction head to a predetermined position at which the workpiece is fed; a suction controller configured to cause the robot device to attempt to pick up the workpiece with the suction head at the predetermined position; a determiner configured to determine whether the suction head has picked up the workpiece in the attempt based on a detection result of the pressure of the compressed air from the pressure sensor; a searcher configured to cause, in response to determination that the suction head has yet to pick up the workpiece, the robot device to rotationally move the suction head spirally in a horizontal direction while causing the suction head to perform a suction operation for the workpiece using the compressed air; and an estimator configured to estimate a direction in which the workpiece is located with respect to the predetermined position based on a change in the pressure of the compressed air detected by the pressure sensor during the rotational movement of the suction head, wherein in response to the determination that the suction head has yet to pick up the workpiece, the movement controller is configured to cause the robot device to further move the suction head in the estimated direction, and after the suction head is further moved in the estimated direction, the suction controller is configured to cause the robot device to reattempt to pick up the workpiece with the suction head. a movement controller configured to cause the robot device to move the suction head to a predetermined position at which the workpiece is fed; a suction controller configured to cause the robot device to attempt to pick up the workpiece with the suction head at the predetermined position; a determiner configured to determine whether the suction head has picked up the workpiece in the attempt based on a detection result of the pressure of the compressed air from the pressure sensor; an estimator configured to estimate a direction in which the workpiece is located with respect to the predetermined position based on a change in the pressure of the compressed air detected by the pressure sensor during the rotational movement of the suction head, wherein in response to the determination that the suction head has yet to pick up the workpiece, the movement controller is configured to cause the robot device to further move the suction head in the estimated direction, and after the suction head is further moved in the estimated direction, the suction controller is configured to cause the robot device to reattempt to pick up the workpiece with the suction head.
Solar cell stack comprising at least five semiconductor solar cells consisting of Ge and/or a Ge compound and/or a III-V compound, wherein each semiconductor solar cell includes a P/N transition, comprising - a first solar cell part, with an upper side and a lower side and first semiconductor solar cell and wherein the first semiconductor solar cell has a first lattice constant, and - a second solar cell part, with an upper side and a lower side and a second semiconductor solar cell and wherein the second semiconductor solar cell has a second lattice constant, the difference between the first lattice constant and the second lattice constant being at least 0.5%, wherein the first solar cell part is arranged with a lower side on the upper side of the second solar cell part in frictional couple one on the other, and at least one of the two solar cell parts comprises a further semiconductor solar cell and a metamorphic intermediate layer having a first layer thickness and the metamorphic intermediate layer varies the lattice constant by at least 0.5% along the thickness dimension of the metamorphic intermediate layer, and a boundary surface with an abrupt difference between the first lattice constant and the second lattice constant of at least 0.5% is formed between the lower side of the first solar cell part and the upper side of the second solar cell part, and the second solar cell part comprises a semiconductor solar cell of germanium, characterised in that a metamorphic intermediate layer is formed on the germanium solar cell and an InGaAs solar cell is formed on the metamorphic intermediate layer (, and the boundary surface comprises an amorphous layer, wherein the second solar cell comprises a semiconductor solar cell of germanium and a semiconductor solar cell of an InGaAs or AllnGaAs compound and the first solar cell part comprises a semiconductor solar cell of a GaAs or an InGaAs compound and a semiconductor solar cell of an AIGaAs or AllnGaAs compound and a semiconductor solar cell of an AlInGaP compound, or the first solar cell part and the second solar cell part comprise in total five semiconductor solar cells with a first energy gap in the range of 1.9 to 2.1 eV, a second energy gap of 1.6 to 1.8 eV, a third energy gap in the range of 1.4 to 1.6 eV, a fourth energy gap in the range of 0.9 to 1.1 eV and a fifth energy gap in the range 0.6 to 0.7 eV. - a first solar cell part, with an upper side and a lower side and first semiconductor solar cell and wherein the first semiconductor solar cell has a first lattice constant, and - a second solar cell part, with an upper side and a lower side and a second semiconductor solar cell and wherein the second semiconductor solar cell has a second lattice constant, the difference between the first lattice constant and the second lattice constant being at least 0.5%,
A method of mass spectrometry comprising: subjecting biomolecular ions to Hydrogen-Deuterium exchange to form first ions; and then causing said first ions to at least partially unfold or alter their conformation to form second ions by either: (i) subjecting said first ions or ions derived from said first ions to IR, visible or UV photo-activation; and/or (ii) exposing said first ions or ions derived from said first ions to acidic vapours or supercharging said ions; and mass analysing said second ions. subjecting biomolecular ions to Hydrogen-Deuterium exchange to form first ions; and then causing said first ions to at least partially unfold or alter their conformation to form second ions by either: (i) subjecting said first ions or ions derived from said first ions to IR, visible or UV photo-activation; and/or (ii) exposing said first ions or ions derived from said first ions to acidic vapours or supercharging said ions; and (i) subjecting said first ions or ions derived from said first ions to IR, visible or UV photo-activation; and/or (ii) exposing said first ions or ions derived from said first ions to acidic vapours or supercharging said ions; and mass analysing said second ions.
A compound selected from the group consisting of a methylcyclohexane derivative represented by Formula I below and a pharmaceutically acceptable salts, solvate, and hydrate of the methylcyclohexane derivative, and a combination thereof. wherein Ar is selected from the group consisting of phenyl, pyridine, and pyridine-N-oxide, each of which is substituted with one or more identical or different substituents selected from the group consisting of a hydrogen atom, a linear or branched C1 to C6 alkyl, halogen, a linear or branched C1 to C6 alkoxy, and trifluoromethyl; X is O, (C=O)O, NR1(C=O)O, NH, (C=O)NH, or O(C=O)NH; and R1 is H or CH3; Y is CH2, O, or N-R2; R2 is H or CH3; A is O or NH; B is CH or N; and m is an integer between 0 and 2 and n is 0 or 1.
Multipurpose aerodynamic surface of an aircraft provided with a hollow and elongated moulded structure extending from a securing section for fixing the structure to an aircraft body towards a free section (11"), characterised in that it comprises a perforated support means arranged in a receiving section distinct from the securing section and an interchangeable fixing plate fixed reversibly to said support means, said fixing plate comprising at least one piece of aircraft positioning equipment, said at least one piece of equipment being from among the following elements: an anti-collision light, a position light, an antenna of a radionavigation system, an antenna of a radiocommunication system, a GPS antenna, a satellite antenna.
A method executed in a Broadcast Multicast Service Centre, BM-SC, for transmitting data in a broadcast session to at least one User Equipment, UE, in a radio communication system, the method comprising: determining to transmit data to at least one UE; - determining a Forward Error Correction, FEC, redundancy level, indicative of the amount of FEC redundancy to be applied for said data transmission, and - transmitting said data and the FEC redundancy level to said UE(s). determining to transmit data to at least one UE; - determining a Forward Error Correction, FEC, redundancy level, indicative of the amount of FEC redundancy to be applied for said data transmission, and - transmitting said data and the FEC redundancy level to said UE(s). - determining a Forward Error Correction, FEC, redundancy level, indicative of the amount of FEC redundancy to be applied for said data transmission, and - transmitting said data and the FEC redundancy level to said UE(s).
A manifold pad for distributing reduced pressure at a tissue site, the manifold pad comprising a manifold member being formed of a polymer foam having a plurality of interconnected struts that form a plurality of flow channels that extend through the manifold member, the struts having an exterior surface area, and characterized by a radioopacifier associated with the exterior surface area of the struts in a quantity sufficient to be detected using radiography; and wherein the strut exterior surface of the plurality of struts is at least fifty percent (50%) covered by the radioopacifier.
Turbomachine comprising a rotor which is mounted by way of an active magnetic bearing on at least one shaft end, wherein the rotor has a region acted on by fluid and at least one cooling plate is arranged on the rotor between the region acted on by fluid and the magnetic bearing, and wherein the magnetic bearing and the cooling plate are cooled by means of air, characterized in that two cooling systems (7, 8), which are separate from one another, are provided, of which the first cooling system provides air for cooling the magnetic bearing and wherein the second cooling system provides air for cooling the cooling plate.
An electrode for fuel cell, comprising: carbon nanotubes; a catalyst for fuel cell supported on the carbon nanotubes; and an ionomer provided to coat the carbon nanotubes and the catalyst for fuel cell, wherein when a length of the carbon nanotubes is represented by La [μm] and an inter-core pitch of the carbon nanotubes is represented by Pa [μm], the length La and the inter-core pitch Pa satisfy two expressions given below: 30 ≤ La ≤ 240; and 0.351 × La + 75 ≤ Pa ≤ 250; and wherein the electrode for fuel cell comprising the nanotubes is joined with the electrolyte membrane by thermal pressure and is subsequently compressed to a thickness of no less than 7.5 μm and no more than 17.5 μm to be used as a catalyst for a fuel cell. carbon nanotubes; a catalyst for fuel cell supported on the carbon nanotubes; and an ionomer provided to coat the carbon nanotubes and the catalyst for fuel cell, wherein when a length of the carbon nanotubes is represented by La [μm] and an inter-core pitch of the carbon nanotubes is represented by Pa [μm], the length La and the inter-core pitch Pa satisfy two expressions given below: 30 ≤ La ≤ 240; and 0.351 × La + 75 ≤ Pa ≤ 250; and wherein the electrode for fuel cell comprising the nanotubes is joined with the electrolyte membrane by thermal pressure and is subsequently compressed to a thickness of no less than 7.5 μm and no more than 17.5 μm to be used as a catalyst for a fuel cell.
A hair treatment system comprising: a sensor device having at least one condition sensor for detecting a degree of hair damage; and an electric hair treatment device comprising: an application device for applying a hair treatment agent to the hair; a hair treatment unit; and an electronic circuit device, wherein the electronic circuit device is coupled to the sensor device in order to receive the degree of hair damage, and wherein the electronic circuit device is designed to control the hair treatment on the basis of the received detected degree of hair damage, wherein the hair treatment comprises application of the hair treatment agent by means of the application device and mechanical and/or thermal treatment by means of the hair treatment unit, wherein the sensor device comprises at least one sensor which is designed to detect an environmental parameter. a sensor device having at least one condition sensor for detecting a degree of hair damage; and an electric hair treatment device comprising: an application device for applying a hair treatment agent to the hair; a hair treatment unit; and an electronic circuit device, wherein the electronic circuit device is coupled to the sensor device in order to receive the degree of hair damage, and wherein the electronic circuit device is designed to control the hair treatment on the basis of the received detected degree of hair damage, wherein the hair treatment comprises application of the hair treatment agent by means of the application device and mechanical and/or thermal treatment by means of the hair treatment unit, wherein the sensor device comprises at least one sensor which is designed to detect an environmental parameter. an application device for applying a hair treatment agent to the hair; a hair treatment unit; and an electronic circuit device, wherein the electronic circuit device is coupled to the sensor device in order to receive the degree of hair damage, and wherein the electronic circuit device is designed to control the hair treatment on the basis of the received detected degree of hair damage, wherein the hair treatment comprises application of the hair treatment agent by means of the application device and mechanical and/or thermal treatment by means of the hair treatment unit, wherein the sensor device comprises at least one sensor which is designed to detect an environmental parameter.
An iron-chromium-aluminium alloy having a high durability and showing minor changes in heat resistance, comprising (in % by mass): Al 4.9 through 5.8 % Cr 16 through 24 % W 1.4 through 2.5 % Si 0.05 through 0.7 % Mn 0.001 through 0.5 % Y 0.02 through 0.1 % Zr 0.02 through 0.1 % Hf 0.02 through 0.1 % C 0.003 through 0.030 % N 0.002 through 0.03 % S max. 0.01 % Cu max. 0.5 % with 0.0001 - 0.05 % Mg, 0.0001 - 0.03 % Ca, 0.0002 - 0.03 % P, max. 0.1 % Nb, max. 0.1 % V, max. 0.1 % Ta, max. 0.01 % O, max. 0.5 % Ni, max. 0.003 % B, the rest being iron and the usual process-related impurities.
System comprising a buffer conveyor for transferring food product, comprising a belt mounted about a top and a bottom pulley that shuttles vertically to create a buffer zone to accommodate intermittent loading and provide continuous unloading; said system furthermore comprising a transfer wheel, and a drop wheel, wherein the drop wheel facilitates unloadling of the conveyor; and the transfer wheel transfers food product to a second wheel that loads the food product on the buffer conveyor, characterized in that the belt extends around the transfer wheel and around the drop wheel.
A screw compressor, in particular for refrigerating plants, which has a compressor housing which at least partially houses the compressor, comprising an optional integrated suction gas filter and an integrated non-return valve, characterized in that the non-return valve is a valve to be actuated with pressurized gas and the compressor housing possesses cavities, in particular bored or cast-in ducts (13, 16, 22, 23, 24), which can be subjected to pressurized gas for controlling of the non-return valve.