mhurhangee/ep-ind-claims huggingface dataset:
A polymer composition comprising: an olefinic double bond-containing polymer; and a cyano group-containing compound represented by the following Formula: R-C 2 H 4 -CN... wherein in the Formula, R is an unsubstituted alkyl group and has 30 or less carbon atoms; and a hydrocyanation catalyst, wherein the hydrocyanation catalyst includes a nickel complex, a co-catalyst and a ligand, wherein the nickel complex is bis (1,5-cyclooctadiene) nickel, the co-catalyst is dimethylchloro aluminum, and the ligand is bis[2-(diphenyl phosphino) phenyl]ether. an olefinic double bond-containing polymer; and a cyano group-containing compound represented by the following Formula: R-C 2 H 4 -CN... wherein in the Formula, R is an unsubstituted alkyl group and has 30 or less carbon atoms; and a hydrocyanation catalyst, wherein the hydrocyanation catalyst includes a nickel complex, a co-catalyst and a ligand, wherein the nickel complex is bis (1,5-cyclooctadiene) nickel, the co-catalyst is dimethylchloro aluminum, and the ligand is bis[2-(diphenyl phosphino) phenyl]ether.
A first computing node of a safety relevant system, said node being characterized by comprising: a computing circuit configured to generate a first redundant message; a comparing circuit (807, 1010) configured to compare information content of one or more corresponding portions of the first redundant message to a second redundant message, said second redundant message resulting from a computation performed by a second node and propagating over a network (106, 108, 804, 1011) during at least one time period, during each of the at least one time period to thereby perform a portion-by-portion comparison of the first and second messages in real time to generate a comparison result; and an indicator circuit (809, 1009) configured to indicate, if the result of the comparison is that the first redundant message equals the second redundant message, to another node coupled to the network that the second redundant message on the network is valid. a computing circuit configured to generate a first redundant message; a comparing circuit (807, 1010) configured to compare information content of one or more corresponding portions of the first redundant message to a second redundant message, said second redundant message resulting from a computation performed by a second node and propagating over a network (106, 108, 804, 1011) during at least one time period, during each of the at least one time period to thereby perform a portion-by-portion comparison of the first and second messages in real time to generate a comparison result; and an indicator circuit (809, 1009) configured to indicate, if the result of the comparison is that the first redundant message equals the second redundant message, to another node coupled to the network that the second redundant message on the network is valid.
Belt for wearing around a body center of an athlete while exercising, comprising: a padding portion (2, 202), the padding portion (2, 202) having a seat pad (3, 203) for sitting thereon; and at least one elastic portion (6, 8), wherein the belt has a circumferential length in the absence of external force, wherein under an external force, the circumferential length of the belt can be reversibly increased by at least 8%, preferably by at least 20%, by elastic stretching of the at least one elastic portion (6, 8), wherein the belt forms a closed curve. a padding portion (2, 202), the padding portion (2, 202) having a seat pad (3, 203) for sitting thereon; and at least one elastic portion (6, 8), wherein the belt has a circumferential length in the absence of external force, wherein under an external force, the circumferential length of the belt can be reversibly increased by at least 8%, preferably by at least 20%, by elastic stretching of the at least one elastic portion (6, 8), wherein the belt forms a closed curve.
A method for the calibration of a laboratory instrument comprising: providing an optical system capable of imaging florescence emission from a plurality of sample wells and acquiring a fluorescence image of the plurality of sample wells, the optical system comprising pairs of excitation and emission filters; estimating an initial region of interest, ROI, from fluorescence thresholds from each sample well in the fluorescence image; estimating center locations of each ROI; estimating a size of each ROI; determining an average size of the ROIs from the plurality of sample wells; deriving global gridding models, wherein the deriving comprises analyzing the estimated center locations of each ROI to determine adjacent ROIs by comparing a center-to-center distance between ROIs to grid coordinates of a well plate layout and determining an X and Y grid coordinate for each of the ROI center locations; applying the global gridding models to the ROIs by determining and applying mapping functions that map the X or Y grid coordinates to the center locations of each ROI in the X or Y direction, the mapping functions being a pair of 2-dimensional quadratic polynomial functions; recovering missing ROIs with the mapping functions; for each filter pair of the instrument, incrementally extending the radius of each of the ROIs, and calculating a signal-to-noise ratio for each increment, wherein an optimized radius for each of the ROIs is determined as the extended radius of the ROIs that provides the most improved signal-to-noise ratio of the optical system. providing an optical system capable of imaging florescence emission from a plurality of sample wells and acquiring a fluorescence image of the plurality of sample wells, the optical system comprising pairs of excitation and emission filters; estimating an initial region of interest, ROI, from fluorescence thresholds from each sample well in the fluorescence image; estimating center locations of each ROI; estimating a size of each ROI; determining an average size of the ROIs from the plurality of sample wells; deriving global gridding models, wherein the deriving comprises analyzing the estimated center locations of each ROI to determine adjacent ROIs by comparing a center-to-center distance between ROIs to grid coordinates of a well plate layout and determining an X and Y grid coordinate for each of the ROI center locations; applying the global gridding models to the ROIs by determining and applying mapping functions that map the X or Y grid coordinates to the center locations of each ROI in the X or Y direction, the mapping functions being a pair of 2-dimensional quadratic polynomial functions; recovering missing ROIs with the mapping functions; for each filter pair of the instrument, incrementally extending the radius of each of the ROIs, and calculating a signal-to-noise ratio for each increment, wherein an optimized radius for each of the ROIs is determined as the extended radius of the ROIs that provides the most improved signal-to-noise ratio of the optical system.
A pack with an inner volume in which a food or beverage ingredient is stored and in which a beverage is produced when water is introduced inside, said inner volume being defined by one flexible material sheet folded at the top of the pack and bonded on its edges, or by two flexible material sheets bonded on their edges, and said pack presenting a generally plane shape defining a plane vertically oriented during beverage production, said pack comprising at least one inlet for introducing water in the inner volume and at least one outlet for delivering the beverage from said inner volume, the inlet and the outlet being included in one insert, said insert being positioned at the bottom of the pack and being at least partially positioned between joined edges of said one or two flexible material sheets, said inlet being closed by one sheet of material defining the inner volume, wherein the insert comprises a centring hole extending essentially perpendicularly to the generally plane shape of the pack.
Process for the depolymerization of a polyester feedstock comprising opaque PET, said feedstock comprising from 0.1% to 10% by weight of pigment, said process comprising at least the following steps: a) a step of conditioning fed by said polyester feedstock; b) a step of depolymerization by glycolysis fed at least by the stream from step a) and by an addition of diol, operated at a temperature of between 200 and 400°C, with from 1 to 20 mol of diol per mole of diester in said polyester feedstock and a residence time of the polyester of between 0.1 and 5 h, converting the PET into BHET monomer and BHET oligomers; c) a step of separation of the diol fed at least by the stream from step b), operated at a temperature of between 100 and 250°C, at a lower pressure than that of step b) and producing a diol stream and a liquid stream rich in monomers, carried out in 1 to 5 successive gas/liquid separation stages, the liquid stream from the preceding stage feeding the next stage, all of the gas streams being condensed to form the diol stream, the liquid stream resulting from the final gas/liquid separation stage constituting the liquid stream rich in monomers; d) a step of separation of the liquid stream rich in monomers resulting from step c) into a heavy impurities stream and a prepurified monomers stream operated at a temperature of less than 250°C and a pressure of less than 0.001 MPa with a liquid residence time of less than 10 min; and e) a step of decoloration of the prepurified monomers stream, operated at a temperature of between 100 and 250°C and at a pressure of between 0.1 and 1.0 MPa in the presence of an adsorbent and producing a purified monomers stream. a) a step of conditioning fed by said polyester feedstock; b) a step of depolymerization by glycolysis fed at least by the stream from step a) and by an addition of diol, operated at a temperature of between 200 and 400°C, with from 1 to 20 mol of diol per mole of diester in said polyester feedstock and a residence time of the polyester of between 0.1 and 5 h, converting the PET into BHET monomer and BHET oligomers; c) a step of separation of the diol fed at least by the stream from step b), operated at a temperature of between 100 and 250°C, at a lower pressure than that of step b) and producing a diol stream and a liquid stream rich in monomers, carried out in 1 to 5 successive gas/liquid separation stages, the liquid stream from the preceding stage feeding the next stage, all of the gas streams being condensed to form the diol stream, the liquid stream resulting from the final gas/liquid separation stage constituting the liquid stream rich in monomers; d) a step of separation of the liquid stream rich in monomers resulting from step c) into a heavy impurities stream and a prepurified monomers stream operated at a temperature of less than 250°C and a pressure of less than 0.001 MPa with a liquid residence time of less than 10 min; and e) a step of decoloration of the prepurified monomers stream, operated at a temperature of between 100 and 250°C and at a pressure of between 0.1 and 1.0 MPa in the presence of an adsorbent and producing a purified monomers stream.
A method for processing scheduling request, comprising: determining, by a terminal device, that a condition for triggering a scheduling request, SR, of a first service is met; determining, by the terminal device, whether a priority of the first service is higher than a priority of a second service for which an SR has been triggered; when determining that the priority of the first service is higher than the priority of the second service, triggering, by the terminal device, the SR of the first service; and wherein a first timer corresponding to the SR of the first service controls sending of the SR of the first service, and the terminal device keeps from sending the SR of the first service until the first timer expires; a second timer corresponding to the SR of the second service controls sending of the SR of the second service, and the terminal device keeps from sending the SR of the second service until the second timer expires. determining, by a terminal device, that a condition for triggering a scheduling request, SR, of a first service is met; determining, by the terminal device, whether a priority of the first service is higher than a priority of a second service for which an SR has been triggered; when determining that the priority of the first service is higher than the priority of the second service, triggering, by the terminal device, the SR of the first service; and wherein a first timer corresponding to the SR of the first service controls sending of the SR of the first service, and the terminal device keeps from sending the SR of the first service until the first timer expires; a second timer corresponding to the SR of the second service controls sending of the SR of the second service, and the terminal device keeps from sending the SR of the second service until the second timer expires.
A rotary impact tool comprising a hammer rotating by receiving a rotational force of a motor, an anvil rotating by receiving a rotational force of the hammer, and an end tool attached to the anvil, the rotary impact tool being constructed such that when a torque of a value not less than a predetermined value is applied to the anvil from the outside, the hammer is disengaged from the anvil to rotate idle and applies an impact to the anvil in a rotational direction after rotating idle by a predetermined angle, wherein the rotary impact tool further comprises an impact detection means detecting impacts, and a speed switching means switching the rotational speed of the motor, wherein when the impact detection means detects start of impact during rotation of the anvil in a tightening direction, the speed switching means switches the rotational speed of the motor from a high speed to a low speed, characterized in that the rotary impact tool includes a main switch adjusting the rotating speed of the motor according to a pulling amount of a trigger, and the rotary impact tool is constructed such that both in the case that the motor is switched to the high speed and in the case that the motor is switched to the low speed, the rotational speed of the motor can be adjusted according to the pulling amount of the trigger
Sanitary shutoff and/or switching valve comprising - a valve housing (1, 31), - an inlet (4, 40) leading into the valve housing (1, 31), - at least one outlet (5, 48) leading out of the valve housing (1, 31), - a valve that acts between the inlet (4, 40) into the valve housing (1, 31) and the outlet (5, 48) out of the valve housing (1, 31), the valve having a valve seat and a valve closing body (8, 51) which has discrete, stable positions, - an advancing device for stepwise moving the valve closing body (8, 51) between the stable positions, and - a manual actuating device including a push button for the advancing device, - wherein the valve seat has a passage (18, 46) leading to the outlet (5, 48) out of the housing (1, 31), specifically at least one passage (18, 46) for each outlet (5, 48) when there are a plurality of outlets, - wherein the valve closing body (8, 51) is spring-loaded in the direction toward the valve seat counter to a lifting movement, and - wherein the movement of the valve closing body (8, 51) is composed of the lifting movement and, extending transversely in relation thereto, a rotary movement relative to the valve seat, wherein the discrete, stable positions of the valve closing body (8, 51) correspond to different rotation angle positions of the valve closing body, wherein the valve closing body (8, 51) is firstly lifted from the valve seat and subsequently rotated in the direction toward the next discrete, stable position and again lowered onto the valve seat. - a valve housing (1, 31), - an inlet (4, 40) leading into the valve housing (1, 31), - at least one outlet (5, 48) leading out of the valve housing (1, 31), - a valve that acts between the inlet (4, 40) into the valve housing (1, 31) and the outlet (5, 48) out of the valve housing (1, 31), the valve having a valve seat and a valve closing body (8, 51) which has discrete, stable positions, - an advancing device for stepwise moving the valve closing body (8, 51) between the stable positions, and - a manual actuating device including a push button for the advancing device, - wherein the valve seat has a passage (18, 46) leading to the outlet (5, 48) out of the housing (1, 31), specifically at least one passage (18, 46) for each outlet (5, 48) when there are a plurality of outlets, - wherein the valve closing body (8, 51) is spring-loaded in the direction toward the valve seat counter to a lifting movement, and - wherein the movement of the valve closing body (8, 51) is composed of the lifting movement and, extending transversely in relation thereto, a rotary movement relative to the valve seat, wherein the discrete, stable positions of the valve closing body (8, 51) correspond to different rotation angle positions of the valve closing body, wherein the valve closing body (8, 51) is firstly lifted from the valve seat and subsequently rotated in the direction toward the next discrete, stable position and again lowered onto the valve seat.
A rotary shift actuator for a shift-by-wire transmission comprising a motor having a motor shaft that is rotatable about a motor axis, an output head arranged towards a second end of an output lever and adapted for connection with a shift shaft of a transmission and a gear train for transferring torque from the motor shaft to the output head, wherein the gear train comprises a first shaft rotatable about a first axis, a second shaft rotatable about a second axis and the output lever pivotable about a lever axis and wherein the gear train further comprises means (5, 11, 21, 25, 37, 43) for transmitting torque from the motor shaft to the first shaft, from the first shaft to the second shaft and from the second shaft to the output lever, wherein the means (21, 25) for transmitting torque from the first shaft to the second shaft is formed as a worm gear (21, 25), characterized in that the motor axis extends parallel to the first axis and perpendicular to the second axis and the second axis extends parallel to the lever axis, the means (5, 11) for transmitting torque from the motor shaft to the first shaft is formed by a motor spur gear attached to the motor shaft and a first spur gear attached to the first shaft, wherein the first spur gear is in meshing engagement with the motor spur gear and the first shaft is of a cylindrical shape and mounted in two tube-shaped bushings (23, 23'), such that the first shaft can be displaced in the direction of the first axis. a motor having a motor shaft that is rotatable about a motor axis, an output head arranged towards a second end of an output lever and adapted for connection with a shift shaft of a transmission and a gear train for transferring torque from the motor shaft to the output head, wherein the gear train comprises a first shaft rotatable about a first axis, a second shaft rotatable about a second axis and the output lever pivotable about a lever axis and wherein the gear train further comprises means (5, 11, 21, 25, 37, 43) for transmitting torque from the motor shaft to the first shaft, from the first shaft to the second shaft and from the second shaft to the output lever, wherein the means (21, 25) for transmitting torque from the first shaft to the second shaft is formed as a worm gear (21, 25), characterized in that the motor axis extends parallel to the first axis and perpendicular to the second axis and the second axis extends parallel to the lever axis, the means (5, 11) for transmitting torque from the motor shaft to the first shaft is formed by a motor spur gear attached to the motor shaft and a first spur gear attached to the first shaft, wherein the first spur gear is in meshing engagement with the motor spur gear and the first shaft is of a cylindrical shape and mounted in two tube-shaped bushings (23, 23'), such that the first shaft can be displaced in the direction of the first axis.
A composition comprising a therapeutically effective amount of an IFNγ antibody and a pharmaceutically acceptable carrier, for use in a method for treating hepatitis B virus infection, comprising administering to a subject in need thereof said composition.
A waterproofing cable splice shell, comprising: an end surface separating the cable splice shell into an inner part and an outer part; at least a first hollow tube configured on the end surface and passing therethrough a first cable, characterized in that the first cable extends from the outer part to the inner part through the first hollow tube, leaves a portion in the inner part, and leaves from the inner part through the first hollow tube toward the outer part, the first cable has a first segment before extending into the inner part and a second segment leaving from the inner part, and the first and the second segments have an interstice there between; and at least an auxiliary device (401, 402, 403, 404) filling the interstice to form a first waterproofing structure, and including two pieces of bundling bodies and a waterproof double-faced adhesive tape, wherein the bundling bodies are adhered to the first cable by the waterproof double-faced adhesive tape. an end surface separating the cable splice shell into an inner part and an outer part; at least a first hollow tube configured on the end surface and passing therethrough a first cable, characterized in that the first cable extends from the outer part to the inner part through the first hollow tube, leaves a portion in the inner part, and leaves from the inner part through the first hollow tube toward the outer part, the first cable has a first segment before extending into the inner part and a second segment leaving from the inner part, and the first and the second segments have an interstice there between; and at least an auxiliary device (401, 402, 403, 404) filling the interstice to form a first waterproofing structure, and including two pieces of bundling bodies and a waterproof double-faced adhesive tape, wherein the bundling bodies are adhered to the first cable by the waterproof double-faced adhesive tape.