mhurhangee/ep-ind-claims huggingface dataset:
A fuzz testing apparatus, comprising: a storage, being configured to store a plurality of candidate test packets (CTP1, CTP2, CTP3) capable of testing a device under test; a transceiver, being electrically connected with the storage and configured to transmit and receive a plurality of first packets (P1, P2, P3) to the device under test; and a processor, being electrically connected with the storage and the transceiver and configured to: calculate an abnormal-state probability, a normal response time and an abnormal-state-processing time of the device under test on a basis of the plurality of first packets (P1, P2, P3) transmitted and received; estimate a maximum quantity of packets being sent to the device under test in a dormant period of the device under test according to the abnormal-state probability, the normal response time and the abnormal-state-processing time; and determine a plurality of test packets (TP1, TP2) from the candidate test packets (CTP1, CTP2, CTP3) according to the maximum quantity of packets; wherein the transceiver is further configured to transmit the test packets (TP1, TP2) to the device under test, so as to perform a fuzz test to the device under test. a storage, being configured to store a plurality of candidate test packets (CTP1, CTP2, CTP3) capable of testing a device under test; a transceiver, being electrically connected with the storage and configured to transmit and receive a plurality of first packets (P1, P2, P3) to the device under test; and a processor, being electrically connected with the storage and the transceiver and configured to: calculate an abnormal-state probability, a normal response time and an abnormal-state-processing time of the device under test on a basis of the plurality of first packets (P1, P2, P3) transmitted and received; estimate a maximum quantity of packets being sent to the device under test in a dormant period of the device under test according to the abnormal-state probability, the normal response time and the abnormal-state-processing time; and determine a plurality of test packets (TP1, TP2) from the candidate test packets (CTP1, CTP2, CTP3) according to the maximum quantity of packets; calculate an abnormal-state probability, a normal response time and an abnormal-state-processing time of the device under test on a basis of the plurality of first packets (P1, P2, P3) transmitted and received; estimate a maximum quantity of packets being sent to the device under test in a dormant period of the device under test according to the abnormal-state probability, the normal response time and the abnormal-state-processing time; and determine a plurality of test packets (TP1, TP2) from the candidate test packets (CTP1, CTP2, CTP3) according to the maximum quantity of packets; wherein the transceiver is further configured to transmit the test packets (TP1, TP2) to the device under test, so as to perform a fuzz test to the device under test.
A winch comprising a large belt pulley, a winch drum which is connected to said large belt pulley, the large belt pulley and the winch drum are on the same shaft, said large belt pulley being rotatably connected to at least one prime mover, and further having at least two rotatable secondary shafts (4,4'), each being parallel to the rotational axis of said belt pulley and being in rotational connection with said large belt pulley via at least one belt/chain, and said at least one prime mover being in rotational connection with at least one of said secondary shafts, characterised i n that the at least one belt extends as a single belt over the large belt pulley and each secondary shafts.
A process for the preparation of the compound of Formula A wherein R 1 is a C 1 -C 3 alkyl; from the compound of Formula B which comprises the following steps: a) creating a first mixture by combining together the compound of Formula B and a chlorinating agent; b) isolating a compound of Formula C from the first mixture; wherein R is H or Cl; c) creating a second mixture containing an alkali metal alkoxide of Formula D wherein M is Na or K, and R 1 is a C 1 -C 3 alkyl; and the compound of Formula C; d) isolating a compound of Formula E from the second mixture wherein R is H or Cl and R 1 is a C 1 -C 3 alkyl; e) creating a third mixture containing the compound of Formula E, water, and one of a mineral acid and a strong base; f) heating the third mixture; g) isolating a compound of Formula F from the third mixture wherein R is H or Cl and R 1 is a C 1 -C 3 alkyl; h) creating a fourth mixture containing the compound of Formula F and a reducing agent; and i) isolating the compound of Formula A from the fourth mixture; wherein R 1 is a C 1 -C 3 alkyl. a) creating a first mixture by combining together the compound of Formula B and a chlorinating agent; b) isolating a compound of Formula C from the first mixture; wherein R is H or Cl; c) creating a second mixture containing an alkali metal alkoxide of Formula D wherein M is Na or K, and R 1 is a C 1 -C 3 alkyl; and the compound of Formula C; d) isolating a compound of Formula E from the second mixture wherein R is H or Cl and R 1 is a C 1 -C 3 alkyl; e) creating a third mixture containing the compound of Formula E, water, and one of a mineral acid and a strong base; f) heating the third mixture; g) isolating a compound of Formula F from the third mixture wherein R is H or Cl and R 1 is a C 1 -C 3 alkyl; h) creating a fourth mixture containing the compound of Formula F and a reducing agent; and i) isolating the compound of Formula A from the fourth mixture; wherein R 1 is a C 1 -C 3 alkyl.
An apparatus for testing electrical wiring of a device having a conductive portion, an electrical component (16, 17), and a multiphase plug that is electrically coupled to a neutral conductor and at least two phase conductors (20a, 20b, 20c), wherein the neutral conductor is coupled to the conductive portion and the at least two phase conductors (20a, 20b, 20c) are coupled to the electrical component (16, 17), the apparatus comprising: a receptacle that removably couples to the multiphase plug; a grounding cable that removably couples to the conductive portion; a power supply that is configured to generate power and that is in electrical communication with the receptacle to communicate the power to the receptacle; and an annunciator that is in electrical communication with the power supply and the grounding cable and that is configured to generate a response when the receptacle, the multiphase plug, the conductive portion, and the grounding cable are in electrical communication to communicate the power therethrough. a receptacle that removably couples to the multiphase plug; a grounding cable that removably couples to the conductive portion; a power supply that is configured to generate power and that is in electrical communication with the receptacle to communicate the power to the receptacle; and an annunciator that is in electrical communication with the power supply and the grounding cable and that is configured to generate a response when the receptacle, the multiphase plug, the conductive portion, and the grounding cable are in electrical communication to communicate the power therethrough.
A cell for a voltage source converter, the cell comprising: a first cell connection terminal, a second cell connection terminal, a first series connection of two switches (T1, T2), an energy storage branch comprising a capacitor (Cc); and a first power link interconnecting the first series connection of two switches (T1, T2) with the energy storage branch, characterized in that the first power link has an inductance that is configured to change based on the current through it, wherein the inductance has a static component (LBBS1) and a transient component (LBBT), where the first power link has the inductance of the static component (LBBS1) during steady state operation of the cell and is configured to introduce the transient component (LBBT1) triggered by a short-circuit current through the first power link, wherein the first power link comprises a first busbar interconnecting a first end of the first series-connection of two switches (T1, T2) with a first end of the energy storage branch and a second busbar interconnecting a second end of the first series connection of two switches (T1, T2) with a second end of the energy storage branch, where the first busbar (BB 1) is located adjacent the second busbar and at least a part of the first busbar is moveable from the second busbar by repulsion forces caused by the short-circuit current thereby introducing the transient component of the power link. a first cell connection terminal, a second cell connection terminal, a first series connection of two switches (T1, T2), an energy storage branch comprising a capacitor (Cc); and a first power link interconnecting the first series connection of two switches (T1, T2) with the energy storage branch, characterized in that the first power link has an inductance that is configured to change based on the current through it, wherein the inductance has a static component (LBBS1) and a transient component (LBBT), where the first power link has the inductance of the static component (LBBS1) during steady state operation of the cell and is configured to introduce the transient component (LBBT1) triggered by a short-circuit current through the first power link, wherein the first power link comprises a first busbar interconnecting a first end of the first series-connection of two switches (T1, T2) with a first end of the energy storage branch and a second busbar interconnecting a second end of the first series connection of two switches (T1, T2) with a second end of the energy storage branch, where the first busbar (BB 1) is located adjacent the second busbar and at least a part of the first busbar is moveable from the second busbar by repulsion forces caused by the short-circuit current thereby introducing the transient component of the power link.
Tower crane, which can be transferred from a transport position into an operating position and vice versa, comprising a one- or multi-part tower, a multi-part boom, a trolley and a hook block including a block, wherein the tower parts (2a, 2b) and the boom parts (3a, 3b, 3c) are movably and/or pivotally connected with each other, and the boom parts (3a, 3b, 3c) are movably and/or pivotally connected with each other such that in the transport position the boom parts (3a, 3b, 3c) lie one beside and/or above the other, and wherein the trolley and the hook block as a constructional unit can be locked with the boom part (3a, 3b, 3c), on which the trolley is arranged, in the transport position, characterized in that the trolley and the hook block in the transport position are arranged between two or more boom parts (3a, 3b, 3c), in that an aperture is arranged between hoisting rope pulleys (116, 117) of the trolley, and in that a holding means is arranged on the hook block, which for locking can be brought in engagement with a boom-side counter-holding means, wherein the trolley can be combined automatically with the hook block to form a constructional unit by tightening the hoisting rope which is guided over the hoisting rope pulleys (116, 117) of the trolley and those of the hook block, which constructional unit can be moved for engagement with the counter holding means, wherein the block of the hook block enters the aperture by tightening the hoisting rope, and wherein the holding means at the hook block is configured as a transverse yoke and the counter-holding means is configured as a hook element or vice versa.
Balance-spring made of at least one insulating material and to be integrated in a timepiece movement, said insulating material including a silicon core on which a silicon dioxide coating is formed with a thickness greater than 50 nm, characterized in that all or part of the surface of the balance-spring is coated with a deposition of conductive material. that it.
A method for indexing data items and aggregating a plurality of data records, the method comprising: indexing a plurality of data items comprising a plurality of data components to obtain a plurality of data records, wherein the plurality of data records comprise a plurality of fields for storing indexed data components which correspond to data components contained in the data items; selecting one or more of the fields storing the indexed data components for performing an aggregation on; aggregating those of the plurality of data records having matching indexed data components stored in corresponding ones of the selected one or more fields to generate a summarized data record of the aggregated data records, the summarized data record including the matching indexed data components of the aggregated data records in the selected one or more fields; wherein the method is performed using one or more processors. indexing a plurality of data items comprising a plurality of data components to obtain a plurality of data records, wherein the plurality of data records comprise a plurality of fields for storing indexed data components which correspond to data components contained in the data items; selecting one or more of the fields storing the indexed data components for performing an aggregation on; aggregating those of the plurality of data records having matching indexed data components stored in corresponding ones of the selected one or more fields to generate a summarized data record of the aggregated data records, the summarized data record including the matching indexed data components of the aggregated data records in the selected one or more fields; wherein the method is performed using one or more processors.
Hybrid propulsion system (10, 20) for aircraft, comprising at least a fuel cell unit for providing power to drive an aircraft by using hydrogen in a redox reaction; at least a gas turbine for providing power to drive the aircraft by burning hydrogen; a hydrogen source for providing the hydrogen to the fuel cell unit and/or to the gas turbine; and at least an electric propulsion unit (14, 24) for driving the aircraft, the electric propulsion unit (14, 24) comprising a first electric machine (15a, 15b) connected to a first propeller (16a, 16b), the first electric machine being electrically powered by the fuel cell unit and mechanically powered by the gas turbine in at least two different propulsion modes (M1, M2); and a control unit to control the power supply to the electric propulsion unit (14, 24), wherein the control unit is configured to apply a first propulsion mode for a first flight phase in which the electric propulsion unit (14, 24) is essentially or only electrically powered by the fuel cell unit, and to apply a second propulsion mode for a second flight phase in which the electric propulsion unit (14, 24) is essentially or only mechanically powered by the gas turbine. at least a fuel cell unit for providing power to drive an aircraft by using hydrogen in a redox reaction; at least a gas turbine for providing power to drive the aircraft by burning hydrogen; a hydrogen source for providing the hydrogen to the fuel cell unit and/or to the gas turbine; and at least an electric propulsion unit (14, 24) for driving the aircraft, the electric propulsion unit (14, 24) comprising a first electric machine (15a, 15b) connected to a first propeller (16a, 16b), the first electric machine being electrically powered by the fuel cell unit and mechanically powered by the gas turbine in at least two different propulsion modes (M1, M2); and a control unit to control the power supply to the electric propulsion unit (14, 24), wherein the control unit is configured to apply a first propulsion mode for a first flight phase in which the electric propulsion unit (14, 24) is essentially or only electrically powered by the fuel cell unit, and to apply a second propulsion mode for a second flight phase in which the electric propulsion unit (14, 24) is essentially or only mechanically powered by the gas turbine.
A compound of formula I and/or II, or a pharmaceutically acceptable salt form thereof for use in a method of treating discoid lupus erythematosus, wherein the method comprises administering an effective amount of said compound of formula I and/or II, or a pharmaceutically acceptable salt form thereof, to a subject having discoid lupus erythematosus but not having systemic lupus erythematosus.
Process for manufacturing a multilayer composite material for producing mechanical parts or structured elements or articles, characterized in that it comprises the production of one or more windows in a thermoplastic material, the process comprising the following steps: - a) cutting out at least one window in one or more layers made of thermoplastic polymer, one of the layers being a surface layer comprising a thermoplastic polymer A, and at least one window in a reinforcing fibrous material consisting of long fibers, said windows being intended to coincide, - b) optionally inserting a thermoplastic plate in said window(s), - c) impregnating the fibrous material with a liquid acrylic or methacrylic syrup so that the syrup also fills said at least one window, in the absence of the thermoplastic plate, - d) polymerizing the liquid acrylic or methacrylic syrup impregnating the fibrous material and present, in the absence of the thermoplastic plate, in the window(s). - a) cutting out at least one window in one or more layers made of thermoplastic polymer, one of the layers being a surface layer comprising a thermoplastic polymer A, and at least one window in a reinforcing fibrous material consisting of long fibers, said windows being intended to coincide, - b) optionally inserting a thermoplastic plate in said window(s), - c) impregnating the fibrous material with a liquid acrylic or methacrylic syrup so that the syrup also fills said at least one window, in the absence of the thermoplastic plate, - d) polymerizing the liquid acrylic or methacrylic syrup impregnating the fibrous material and present, in the absence of the thermoplastic plate, in the window(s).
A method of conducting a chemical reaction involving gaseous reactants in a slurry bubble column reactor, said reactor comprising: a slurry zone; a gas space above the slurry zone; gas supply apparatus arranged to supply gas to the slurry zone; a gas outlet from the gas space; and a liquid outlet; the gas supply apparatus comprising gas supply and distribution means and a set of gas nozzles; in which said method comprises supplying the gaseous reactants by way of the gas supply apparatus, the reactor contains a volume of slurry comprising a liquid phase and solid catalyst particles, and the catalyst particles are maintained in suspension in the slurry by rising gas bubbles from the gas supply apparatus; and in which the gas supply and distribution means are arranged to deliver the gas to the set of gas nozzles; the nozzles opening downwards and being arranged in use to inject gas into the slurry zone of the reactor, thereby forming downwardly extending gas jets of length L in the slurry; the number and the configuration of the nozzles being selected to provide a distribution of nozzles across a cross section of the reactor which corresponds to a minimum density of 75 evenly distributed nozzles per m 2, the opening of each nozzle being positioned a perpendicular distance D from the surface of the bottom of the reactor, wherein D = 0.75 to 1.5 L.
An electric motor having a fan cowl and a sensor, wherein the sensor has a shaft and a sensor housing, wherein the fan cowl has cutouts, wherein the shaft of the sensor is connected in a rotationally-fixed manner to the rotor shaft of the electric motor, wherein a torque support part has a securing lug connected, in particular screw-connected, to the sensor housing or to a further housing part screw-connected to the latter, in particular an adaptor housing, wherein the torque support part has a strip portion which at its first end region is connected to the securing lug and at its other end region is connected to a deformation portion, characterised in that the torque support part has a reinforcing ring to which a further strip portion is connected with its first end region, wherein at least one lug is arranged on the further strip portion and the further strip portion is likewise connected at its other end region to the deformation portion, wherein the sensor housing or the further housing part projects through the annular hole of the reinforcing ring, - wherein the deformation portion, in particular in the mounted state, is elastically deformed such that an axially directed, elastic force presses the lug into the cut-outs, - and/or wherein the radial spacing of the securing lug, in particular the radial spacing from the reinforcing ring axis, before mounting of the torque support part differs from the radial spacing of the securing lug in the mounted state of the torque support part, so that an axially directed, elastic force presses the lug into the cut-outs in the mounted state of the torque support part. - wherein the deformation portion, in particular in the mounted state, is elastically deformed such that an axially directed, elastic force presses the lug into the cut-outs, - and/or wherein the radial spacing of the securing lug, in particular the radial spacing from the reinforcing ring axis, before mounting of the torque support part differs from the radial spacing of the securing lug in the mounted state of the torque support part, so that an axially directed, elastic force presses the lug into the cut-outs in the mounted state of the torque support part.
A process for separating aggregated proteins from monomeric proteins in a biological solution, the process comprising: providing at least one filter element having a contacting surface, wherein the filter element comprises filter media comprising: a porous substrate; and disposed on the porous substrate, a polymer comprising a hydrocarbon backbone and a plurality of pendant groups attached to the hydrocarbon backbone, wherein each of a first plurality of pendant groups comprises: at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and allowing an initial biological solution to contact the contacting surface of the filter element under conditions effective to separate the aggregated proteins from the monomeric proteins such that a final biological solution includes purified monomeric proteins. providing at least one filter element having a contacting surface, wherein the filter element comprises filter media comprising: a porous substrate; and disposed on the porous substrate, a polymer comprising a hydrocarbon backbone and a plurality of pendant groups attached to the hydrocarbon backbone, wherein each of a first plurality of pendant groups comprises: at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and a porous substrate; and disposed on the porous substrate, a polymer comprising a hydrocarbon backbone and a plurality of pendant groups attached to the hydrocarbon backbone, wherein each of a first plurality of pendant groups comprises: at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and at least one acidic group or salt thereof; and a spacer group that directly links the at least one acidic group or salt thereof to the hydrocarbon backbone by a chain of at least 6 catenated atoms; and allowing an initial biological solution to contact the contacting surface of the filter element under conditions effective to separate the aggregated proteins from the monomeric proteins such that a final biological solution includes purified monomeric proteins.