mhurhangee/ep-ind-claims huggingface dataset:
A method of mass spectrometry comprising: mass selectively transmitting precursor ions from a mass analyser into a fragmentation or reaction device, wherein the mass to charge ratios of the ions transmitted varies with time; fragmenting the precursor ions in the fragmentation or reaction device so as to produce fragment or product ions; mass analysing and detecting the fragment or product ions; determining a time period over which a first fragment or product ion is detected; using said time period to determine a time period over which a precursor ion of said first fragment or product ion was transmitted by said mass analyser; and using the time period over which the precursor ion was transmitted by said mass analyser to determine a mass to charge ratio of said precursor ion; determining a time period over which a second fragment or product ion is detected; using this time period to determine a time period over which a precursor ion of said second fragment or product ion is transmitted by said mass analyser; and using the time period over which this precursor ion is transmitted by said mass analyser to determine a mass to charge ratio of this precursor ion; wherein the time period over which the first fragment or product ion is detected only partially overlaps with the time period over which the second fragment or product ion is detected; wherein the mass analyser that transmits the precursor ions to the fragmentation or reaction device is a mass filter; and wherein the mass transmission window of the mass filter is scanned with a step size smaller than the size of the mass transmission window. mass selectively transmitting precursor ions from a mass analyser into a fragmentation or reaction device, wherein the mass to charge ratios of the ions transmitted varies with time; fragmenting the precursor ions in the fragmentation or reaction device so as to produce fragment or product ions; mass analysing and detecting the fragment or product ions; determining a time period over which a first fragment or product ion is detected; using said time period to determine a time period over which a precursor ion of said first fragment or product ion was transmitted by said mass analyser; and using the time period over which the precursor ion was transmitted by said mass analyser to determine a mass to charge ratio of said precursor ion; determining a time period over which a second fragment or product ion is detected; using this time period to determine a time period over which a precursor ion of said second fragment or product ion is transmitted by said mass analyser; and using the time period over which this precursor ion is transmitted by said mass analyser to determine a mass to charge ratio of this precursor ion; wherein the time period over which the first fragment or product ion is detected only partially overlaps with the time period over which the second fragment or product ion is detected; wherein the mass analyser that transmits the precursor ions to the fragmentation or reaction device is a mass filter; and wherein the mass transmission window of the mass filter is scanned with a step size smaller than the size of the mass transmission window.
An article comprising a composition comprising the product of melt blending components comprising, based on the total weight of blended components: 44 to 74.9 weight percent poly(phenylene ether); 15 to 30 weight percent of a radial block copolymer of an alkenyl aromatic monomer and a conjugated diene; wherein the radial block copolymer comprises 60 to 70 weight percent of poly(alkenyl aromatic) content based on the weight of the radial block copolymer, and has a number average molecular weight of 50,000 to 70,000 atomic mass units, as determined using gel permeation chromatography; 7.5 to 15 weight percent of a polystyrene-poly(ethylene-butylene)-polystyrene triblock copolymer having a polystyrene content of 55 to 80 weight percent based on the weight of the triblock copolymer; 2.5 to 7.5 weight percent of a hydrogenated terpene resin having a softening point of 145 to 155°C measured according to ASTM E28; and 0.1 to 2 weight percent of a hydroxy compound selected from the group consisting of hydroxyacetone, acetoin, allyl alcohol, pinacol, 2,3-diphenylbutane-2,3-diol, 2-butene-1,4-diol, benzyl alcohol, 1-phenylethanol, 2-hydroxyacetophenone, benzopinacol, benzoin, hydrobenzoin, 2-hydroxy-1-phenyl-2-p-tolyl-ethanone, benzhydrol, and combinations thereof; wherein the composition excludes flame retardants other than compounds approved for use as food additives by the United States Food and Drug Administration as of October 31, 2006; and wherein the composition comprises less than 0.01 weight percent of trihydrocarbyl phosphites. 44 to 74.9 weight percent poly(phenylene ether); 15 to 30 weight percent of a radial block copolymer of an alkenyl aromatic monomer and a conjugated diene; wherein the radial block copolymer comprises 60 to 70 weight percent of poly(alkenyl aromatic) content based on the weight of the radial block copolymer, and has a number average molecular weight of 50,000 to 70,000 atomic mass units, as determined using gel permeation chromatography; 7.5 to 15 weight percent of a polystyrene-poly(ethylene-butylene)-polystyrene triblock copolymer having a polystyrene content of 55 to 80 weight percent based on the weight of the triblock copolymer; 2.5 to 7.5 weight percent of a hydrogenated terpene resin having a softening point of 145 to 155°C measured according to ASTM E28; and 0.1 to 2 weight percent of a hydroxy compound selected from the group consisting of hydroxyacetone, acetoin, allyl alcohol, pinacol, 2,3-diphenylbutane-2,3-diol, 2-butene-1,4-diol, benzyl alcohol, 1-phenylethanol, 2-hydroxyacetophenone, benzopinacol, benzoin, hydrobenzoin, 2-hydroxy-1-phenyl-2-p-tolyl-ethanone, benzhydrol, and combinations thereof; wherein the composition excludes flame retardants other than compounds approved for use as food additives by the United States Food and Drug Administration as of October 31, 2006; and wherein the composition comprises less than 0.01 weight percent of trihydrocarbyl phosphites.
A method for testing the integrity of a sealing arrangement of a flexible pipe, comprising: locating a first annular sealing element and a second annular sealing element over a portion of a polymer sealing layer of a flexible pipe, wherein the first annular sealing element is provided between a first collar member and a second collar member and wherein the second annular sealing element is provided at an opposite side of the second collar member; characterised by: pressurising the region between the first sealing element and the second sealing element through a port extending towards the region to a predetermined pressure of at least 2 MPa, and wherein the first and second sealing elements are sealing rings having a cross-section comprising a wedge-like portion, and wherein the first and second sealing elements are oriented in the same axial direction such that the wedge-like portion faces away from an end fitting body. pressurising the region between the first sealing element and the second sealing element through a port extending towards the region to a predetermined pressure of at least 2 MPa, and wherein the first and second sealing elements are sealing rings having a cross-section comprising a wedge-like portion, and wherein the first and second sealing elements are oriented in the same axial direction such that the wedge-like portion faces away from an end fitting body.
A user terminal comprising: a receiving section that receives downlink control information including uplink, UL, resource allocation information; a control section that determines, based on the uplink resource allocation information, a resource block, RB, allocation pattern that is repeated every given-number of resource blocks and an offset in a frequency direction corresponding to the RB allocation pattern; and a transmitting section that transmits a UL signal by using a plurality of resource blocks that are determined based on the RB allocation pattern and the offset. a receiving section that receives downlink control information including uplink, UL, resource allocation information; a control section that determines, based on the uplink resource allocation information, a resource block, RB, allocation pattern that is repeated every given-number of resource blocks and an offset in a frequency direction corresponding to the RB allocation pattern; and a transmitting section that transmits a UL signal by using a plurality of resource blocks that are determined based on the RB allocation pattern and the offset.
A motor transmission unit for an electronic parking brake device, comprising: a case having a passage; a driving member inserted into the case and partially located in the passage of the case; a board threadedly mounted to the driving member and located in the passage, the board having a first end face facing the passage, and a second end face; characterized in that the case is slidably mounted, through a cap, on a clamp, the passage of the case opening toward the cap; and in that the motor transmission unit further comprises a rod located between an inner periphery of the passage and the board such that the board is restricted by the rod and does not rotate; and a push unit having a first end thereof contacting the first end face, a second end of the push unit being inserted in the clamp, a seal ring being mounted to the push unit, a portion of the second end of the push unit being located in a chamber of the clamp and contacting a piston; the motor transmission unit being configured such that when the driving member is driven, the board moves axially along the driving member and toward the clamp, the first end face of the board pushes the push unit which moves axially and moves the piston to push a lining plate of the clamp to contact a brake disk. a case having a passage; a driving member inserted into the case and partially located in the passage of the case; a board threadedly mounted to the driving member and located in the passage, the board having a first end face facing the passage, and a second end face; characterized in that the case is slidably mounted, through a cap, on a clamp, the passage of the case opening toward the cap; and in that the motor transmission unit further comprises a rod located between an inner periphery of the passage and the board such that the board is restricted by the rod and does not rotate; and a push unit having a first end thereof contacting the first end face, a second end of the push unit being inserted in the clamp, a seal ring being mounted to the push unit, a portion of the second end of the push unit being located in a chamber of the clamp and contacting a piston; the motor transmission unit being configured such that when the driving member is driven, the board moves axially along the driving member and toward the clamp, the first end face of the board pushes the push unit which moves axially and moves the piston to push a lining plate of the clamp to contact a brake disk.
An engagement device comprising: an engaged portion disposed rotatably about a rotating shaft and configured to rotate in conjunction with the rotating shaft; an engaging portion disposed coaxially with the engaged portion and configured to perform engagement with the engaged portion and release from the engagement with the engaged portion by shifting in an axial direction; a control unit (MG, 15, 16, 40) configured to control rotation of the engaged portion and shifting of the engaging portion in the axial direction; and a one-way clutch disposed on a power transmission path from the rotating shaft to a coupling member coupled to the engaging portion, characterized in that the control unit (MG, 15, 16, 40) is configured to rotate the engaged portion in an idling direction of the one-way clutch, at a time of performing engagement or release of the engaging portion with or from the engaged portion. an engaged portion disposed rotatably about a rotating shaft and configured to rotate in conjunction with the rotating shaft; an engaging portion disposed coaxially with the engaged portion and configured to perform engagement with the engaged portion and release from the engagement with the engaged portion by shifting in an axial direction; a control unit (MG, 15, 16, 40) configured to control rotation of the engaged portion and shifting of the engaging portion in the axial direction; and a one-way clutch disposed on a power transmission path from the rotating shaft to a coupling member coupled to the engaging portion, characterized in that the control unit (MG, 15, 16, 40) is configured to rotate the engaged portion in an idling direction of the one-way clutch, at a time of performing engagement or release of the engaging portion with or from the engaged portion.
Capper for containers, particularly bottles, comprising a capping head which is operative in a cleanroom, an electric motor with at least one rotor and at least one stator, the capping head being connected to the rotor, and an element for cleanroom separation being formed between the rotor and the stator, characterized in that an ejection rod is provided for ejecting container caps out of the capping head, the ejection rod comprising a first end and a second end (8a, 8b), wherein at the first end it is connected to the element for cleanroom separation, and wherein it is configured as a guide of the rotor and/or of the capping head.
An in vitro method to identify a compound that potentiates the treatment of tuberculosis by bedaquiline which method comprises assessing the ability of a test compound to diminish the activity of transcription factor Rv0880 or transcription factor Rv0324 wherein a compound that diminishes the activity of one or both of said transcription factors is identified as a compound that potentiates the treatment of tuberculosis with BDQ.
A method of decoding video data comprising: receiving a bitstream that is constrained such that escape values used in a palette mode for decoding the video data are no greater than a maximum value, wherein the bitstream includes information for determining at least one escape value representing a sample in a block of the video data to be decoded; receiving a component bitdepth n, wherein the maximum value is calculated according to (1 << (n + 1)) - 1; and reconstructing the sample in the block of the video data using the information for determining the at least one escape value. receiving a bitstream that is constrained such that escape values used in a palette mode for decoding the video data are no greater than a maximum value, wherein the bitstream includes information for determining at least one escape value representing a sample in a block of the video data to be decoded; receiving a component bitdepth n, wherein the maximum value is calculated according to (1 << (n + 1)) - 1; and reconstructing the sample in the block of the video data using the information for determining the at least one escape value.
Hob apparatus, in particular induction hob apparatus, with at least one heating element (12a-b), with at least one extraction unit (14a-b), which has at least one fan wheel (16a-b) and is provided at least partially to extract steam occurring in at least one operating state from at least one cooking region (18a-b) by means of the fan wheel (16a-b), and with at least one electronics unit (20a-b), characterised in that the fan wheel (16a-b), in an installed position, is arranged between the electronics unit (20a-b) and the heating element (12a-b) in a vertical direction (22a-b).
A lock for an antitheft of a motor vehicle steering column including: - a rotor, - a stator head, - a lug and a complementary profile, one carried by the rotor and the other carried by the stator head, the complementary profile being shaped so that its cooperation with the lug blocks the rotation of the rotor in a predetermined direction of rotation from a predetermined angular position and authorizes the rotation of the rotor by prior depression of the rotor, characterized in that the complementary profile is also shaped so that the cooperation between the complementary profile and the lug guides the mounting of the rotor in the stator head according to a pushed-turned type assembly in which the rotor is axially retained in the stator head. - a rotor, - a stator head, - a lug and a complementary profile, one carried by the rotor and the other carried by the stator head, the complementary profile being shaped so that its cooperation with the lug blocks the rotation of the rotor in a predetermined direction of rotation from a predetermined angular position and authorizes the rotation of the rotor by prior depression of the rotor,
A die assembly for extruding a polymeric coating onto a wire, the die assembly having a central longitudinal axis and comprising: A. A die tip comprising an exterior surface and a channel through which a wire can pass, the channel positioned along the central longitudinal axis of the die assembly; B. A die body comprising a trunk and a head and each of the trunk and head comprising interior and exterior (17, 19) surfaces and the head further comprising a channel, the head channel comprising a die land, the die body trunk positioned about the die tip so as to define an annular space between the exterior surface of the die tip and the interior surface of the die body trunk, the die body head extending beyond the die body trunk and die tip and positioned such that the channel of the die body head is on the central longitudinal axis of the die assembly and in alignment with the channel of the die tip, the interior surfaces of the trunk and head continuous with one another so that molten polymer can move through the annular space and coat onto a wire as the wire passes through the die body head; C. A die holder comprising an interior surface and positioned about and in contact with the exterior surface of the die body; and D. A radiator of a circulation design positioned about and in contact with the exterior surface of the die land of the die body head. A. A die tip comprising an exterior surface and a channel through which a wire can pass, the channel positioned along the central longitudinal axis of the die assembly; B. A die body comprising a trunk and a head and each of the trunk and head comprising interior and exterior (17, 19) surfaces and the head further comprising a channel, the head channel comprising a die land, the die body trunk positioned about the die tip so as to define an annular space between the exterior surface of the die tip and the interior surface of the die body trunk, the die body head extending beyond the die body trunk and die tip and positioned such that the channel of the die body head is on the central longitudinal axis of the die assembly and in alignment with the channel of the die tip, the interior surfaces of the trunk and head continuous with one another so that molten polymer can move through the annular space and coat onto a wire as the wire passes through the die body head; C. A die holder comprising an interior surface and positioned about and in contact with the exterior surface of the die body; and D. A radiator of a circulation design positioned about and in contact with the exterior surface of the die land of the die body head.
A method of controlling operation of an unload spout of a moving harvester used to supply crop material to an associated transport vehicle, the method characterised by the steps of: predicting a lateral distance and a longitudinal distance between the harvester and the transport vehicle (step 606); determining if the predicted longitudinal distance is within a predetermined longitudinal distance range (step 608); determining if the predicted lateral distance is within a predetermined lateral distance range (step 608); transmitting a control signal to a harvester spout control system in response to at least one of the predicted longitudinal distance or the predicted lateral distance not being within the corresponding predetermined lateral and longitudinal distance ranges; and adjusting an operational configuration of the harvester spout from a first configuration in response to the transmission of the control signal to the harvester spout control system (step 612). predicting a lateral distance and a longitudinal distance between the harvester and the transport vehicle (step 606); determining if the predicted longitudinal distance is within a predetermined longitudinal distance range (step 608); determining if the predicted lateral distance is within a predetermined lateral distance range (step 608); transmitting a control signal to a harvester spout control system in response to at least one of the predicted longitudinal distance or the predicted lateral distance not being within the corresponding predetermined lateral and longitudinal distance ranges; and adjusting an operational configuration of the harvester spout from a first configuration in response to the transmission of the control signal to the harvester spout control system (step 612).
A bale wrapper apparatus including a table for supporting a bale during a wrapping process, a loading device for loading a bale onto the table, the loading device being configured for movement between a pick-up position, a carrying position and a loading position, characterized in that a control system is configured to control operation of the loading device, said control system including a control unit, a bale sensor for sensing a bale on the loading device and a detector for detecting whether the table is ready to receive a bale, the control unit being configured such that when the bale sensor senses a bale on the loading device with the loading device in the pick-up position: a. if the table is not ready to receive a bale, the loading device is brought to the carrying position, and b. if the table is ready to receive a bale, the loading device is brought to the loading position. a. if the table is not ready to receive a bale, the loading device is brought to the carrying position, and b. if the table is ready to receive a bale, the loading device is brought to the loading position.
An image forming apparatus comprising: a recorder configured to apply a colorant to a recording medium in accordance with a recording operation of a plurality of recording devices; an image-formation controller configured to instruct the recorder to form a combined image including a plurality of normal images and a test image on the recording medium, the plurality of normal images being laid out in a recording area on the recording medium such that at least two normal images of the plurality of normal images are disposed adjacent to each other in a width direction of the recording medium; a reader configured to read the images formed on the recording medium; a failure detector configured to detect a recording operation failure of any of the recording devices based on the test image read by the reader; and a determiner configured to determine the quality of each of the normal images based on the detected result of the recording operation failure by the failure detector and positional information on the images in the combined image. a recorder configured to apply a colorant to a recording medium in accordance with a recording operation of a plurality of recording devices; an image-formation controller configured to instruct the recorder to form a combined image including a plurality of normal images and a test image on the recording medium, the plurality of normal images being laid out in a recording area on the recording medium such that at least two normal images of the plurality of normal images are disposed adjacent to each other in a width direction of the recording medium; a reader configured to read the images formed on the recording medium; a failure detector configured to detect a recording operation failure of any of the recording devices based on the test image read by the reader; and a determiner configured to determine the quality of each of the normal images based on the detected result of the recording operation failure by the failure detector and positional information on the images in the combined image.