mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising an oncolytic virus for use in a method of treating bladder carcinoma in situ in an individual, comprising intravesically administering to the individual an effective amount of an oncolytic virus, wherein the individual is treated with an induction phase of the oncolytic virus followed by a maintenance phase, wherein the induction phase comprises administering to the individual an effective amount of an oncolytic virus once per week for six weeks, and the maintenance phase comprises administering to the individual an effective amount of an oncolytic virus once per week for three weeks every six months at least three times, wherein the start of the induction phase and the start of the maintenance phase are separated by 3 or 6 months, wherein the oncolytic virus is CG0070, and wherein: (i) the individual is unresponsive to BCG treatment; or (ii) the individual has disease reoccurrence subsequent to BCG treatment; and/or (iii) the individual has failed the BCG treatment within 6 months. (i) the individual is unresponsive to BCG treatment; or (ii) the individual has disease reoccurrence subsequent to BCG treatment; and/or (iii) the individual has failed the BCG treatment within 6 months.
A magnetic alignment system for a moving-coil magnetic-levitation planar motor, comprising: a magnet array configured to produce a magnetic field; a motor rotor disposed over the magnet array, wherein: the motor rotor comprises four coil assemblies (X1, X2, Y1, Y2) arranged in a matrix, and among each two adjacent ones of the four coil assemblies (X1, X2, Y1, Y2), one is oriented along a first direction and the other is oriented along a second direction perpendicular to the first direction; and a force sensor unit, characterized in that: the magnetic alignment system further comprises a fixed tooling fixed in position with respect to the magnet array; and wherein the force sensor unit is connected between the motor rotor and the fixed tooling, wherein the force sensor unit is configured to, in the event of one of the four coil assemblies (X1, X2, Y1, Y2) being supplied with a three-phase current, measure a force generated by the one of the four coil assemblies (X1, X2, Y1, Y2) under an effect of the magnetic field. a magnet array configured to produce a magnetic field; a motor rotor disposed over the magnet array, wherein: the motor rotor comprises four coil assemblies (X1, X2, Y1, Y2) arranged in a matrix, and among each two adjacent ones of the four coil assemblies (X1, X2, Y1, Y2), one is oriented along a first direction and the other is oriented along a second direction perpendicular to the first direction; and a force sensor unit, characterized in that: the magnetic alignment system further comprises a fixed tooling fixed in position with respect to the magnet array; and wherein the force sensor unit is connected between the motor rotor and the fixed tooling, wherein the force sensor unit is configured to, in the event of one of the four coil assemblies (X1, X2, Y1, Y2) being supplied with a three-phase current, measure a force generated by the one of the four coil assemblies (X1, X2, Y1, Y2) under an effect of the magnetic field. the magnetic alignment system further comprises a fixed tooling fixed in position with respect to the magnet array; and wherein the force sensor unit is connected between the motor rotor and the fixed tooling, wherein the force sensor unit is configured to, in the event of one of the four coil assemblies (X1, X2, Y1, Y2) being supplied with a three-phase current, measure a force generated by the one of the four coil assemblies (X1, X2, Y1, Y2) under an effect of the magnetic field.
Use of a cyclic aliphatic tertiary amine, a heteroaryl comprising at least one nitrogen atom within the aromatic ring, which nitrogen atom has one electron pair being part of the delocalized aromatic electrons and one electron pair not being part of the delocalized aromatic electrons, or a tertiary nucleophilic organophosphorus compound, as catalyst for chain extension and/or cross-linking of an oligomer or a polymer comprising a carbon-carbon triple bond, wherein said carbon-carbon triple bond is conjugated with a group selected from the group consisting of -C -, -C O-, -C NH-, -C NC1-5 alkyl, -SO 2 -, and -Ph.
A cargo system (100, 520), comprising: a floor panel having a forward end and an aft end; a cargo sled configured to move across the floor panel; a cargo restraint (200, 202, 500, 722) configured to translate relative to the floor panel, the cargo restraint (200, 202, 500, 722) comprising: a longitudinal restraint rod (302, 503) configured to protrude from the floor panel in a deployed position; and a restraint surface (300A, 501) disposed on the longitudinal restraint rod (302, 503) and extending from the longitudinal restraint rod (302, 503) towards the forward end and/or the aft end in the deployed position, wherein the cargo restraint is configured to enable the cargo sled to pass over the restraint surface in a stowed position; and characterized by an electromechanical actuator being mechanically coupled to the longitudinal restraint rod (302, 503), wherein the electromechanical actuator is configured to deploy and stow the cargo restraint, and further comprising a position sensor in communication with the electromechanical actuator, wherein the electromechanical actuator is configured to automatically stow the cargo restraint in response to the position sensor detecting a motion of the cargo sled towards the cargo restraint. a floor panel having a forward end and an aft end; a cargo sled configured to move across the floor panel; a cargo restraint (200, 202, 500, 722) configured to translate relative to the floor panel, the cargo restraint (200, 202, 500, 722) comprising: a longitudinal restraint rod (302, 503) configured to protrude from the floor panel in a deployed position; and a restraint surface (300A, 501) disposed on the longitudinal restraint rod (302, 503) and extending from the longitudinal restraint rod (302, 503) towards the forward end and/or the aft end in the deployed position, wherein the cargo restraint is configured to enable the cargo sled to pass over the restraint surface in a stowed position; and characterized by a longitudinal restraint rod (302, 503) configured to protrude from the floor panel in a deployed position; and a restraint surface (300A, 501) disposed on the longitudinal restraint rod (302, 503) and extending from the longitudinal restraint rod (302, 503) towards the forward end and/or the aft end in the deployed position, wherein the cargo restraint is configured to enable the cargo sled to pass over the restraint surface in a stowed position; and characterized by an electromechanical actuator being mechanically coupled to the longitudinal restraint rod (302, 503), wherein the electromechanical actuator is configured to deploy and stow the cargo restraint, and further comprising a position sensor in communication with the electromechanical actuator, wherein the electromechanical actuator is configured to automatically stow the cargo restraint in response to the position sensor detecting a motion of the cargo sled towards the cargo restraint.
Process for preparing isobutene by dissociation of MTBE, which comprises the following steps: a) MTBE synthesis; reaction of isobutene-containing hydrocarbon mixtures, with methanol, present in one or more methanol-containing streams (VIII, IX), over acidic ion exchangers to give a stream, containing MTBE and TBA, b) Isolation of MTBE; separation of a stream, containing MTBE and TBA, from stream by distillation, c) MTBE dissociation; dissociation of stream in the gas phase over a heterogeneous catalyst to give a stream containing at least isobutene, methanol, MTBE and water and possibly TBA, d) Isolation of isobutene; separation of the stream by distillation to give a stream, containing in each case more than 50% by mass of the amounts of methanol, TBA and water present in stream and a stream (XVII) containing isobutene, e) Removal of water; separation of water from stream to below 1% by mass by distillation to give a stream (VIII), f) Recirculation; total or partial recirculation of the methanol-containing stream (VIII) to the MTBE synthesis. a) MTBE synthesis; reaction of isobutene-containing hydrocarbon mixtures, with methanol, present in one or more methanol-containing streams (VIII, IX), over acidic ion exchangers to give a stream, containing MTBE and TBA, b) Isolation of MTBE; separation of a stream, containing MTBE and TBA, from stream by distillation, c) MTBE dissociation; dissociation of stream in the gas phase over a heterogeneous catalyst to give a stream containing at least isobutene, methanol, MTBE and water and possibly TBA, d) Isolation of isobutene; separation of the stream by distillation to give a stream, containing in each case more than 50% by mass of the amounts of methanol, TBA and water present in stream and a stream (XVII) containing isobutene, e) Removal of water; separation of water from stream to below 1% by mass by distillation to give a stream (VIII), f) Recirculation; total or partial recirculation of the methanol-containing stream (VIII) to the MTBE synthesis.
Component intended for surface mounting obtained at least from a composition comprising at least A) a semiaromatic polyamide modified by an aromatic hydroxyl compound; B) reinforcing fillers; and C) a flame retardant • said semiaromatic polyamide modified by an aromatic hydroxyl compound being a polyamide obtained by using aliphatic monomers and aromatic monomers together with an aromatic hydroxyl compound, and • said flame retardant being selected from the group comprising flame retardants containing phosphorus, flame retardants of the organic nitrogen-containing compound type, flame retardants containing halogenated derivatives. • said semiaromatic polyamide modified by an aromatic hydroxyl compound being a polyamide obtained by using aliphatic monomers and aromatic monomers together with an aromatic hydroxyl compound, and • said flame retardant being selected from the group comprising flame retardants containing phosphorus, flame retardants of the organic nitrogen-containing compound type, flame retardants containing halogenated derivatives.
A sensor system for determining soil characteristics, the sensor system comprising: a ground-engaging device coupled to an agricultural implement, the ground engaging device comprising at least one disc member having an aperture and an elongate shaft extending through the aperture, the elongate shaft having a central axis about which the at least one disc member rotates; a first sensor unit disposed on the disc member, wherein the first sensor unit is configured to measure a first force acting on the disc member in a first direction; a second sensor unit disposed on the elongate shaft, wherein the second sensor unit is configured to measure a second force acting on the elongate shaft in a second direction; wherein the first and second sensor units are angularly displaced in spaced relation from one another with respect to the central axis; and an electronic data processor communicatively coupled to each of the first and second sensor units, the electronic data processor being configured to inferentially determine a soil characteristic based on the first and second force measurements. a ground-engaging device coupled to an agricultural implement, the ground engaging device comprising at least one disc member having an aperture and an elongate shaft extending through the aperture, the elongate shaft having a central axis about which the at least one disc member rotates; a first sensor unit disposed on the disc member, wherein the first sensor unit is configured to measure a first force acting on the disc member in a first direction; a second sensor unit disposed on the elongate shaft, wherein the second sensor unit is configured to measure a second force acting on the elongate shaft in a second direction; wherein the first and second sensor units are angularly displaced in spaced relation from one another with respect to the central axis; and an electronic data processor communicatively coupled to each of the first and second sensor units, the electronic data processor being configured to inferentially determine a soil characteristic based on the first and second force measurements.
A method of measuring a property of a radome, the method comprising utilizing at least one transmitting antenna facing a first side of the radome and utilizing at least one receiving antenna facing a second side of the radome, wherein the first side is opposite to the second side; while the radome is positioned at a first distance from the at least one receiving antenna, the at least one transmitting antenna emitting a first electromagnetic wave and the at least one receiving antenna receiving a portion of the first electromagnetic wave; while the radome is positioned at a second distance from the at least one receiving antenna, the at least one transmitting antenna emitting a second electromagnetic wave and the at least one receiving antenna receiving a portion of the second electromagnetic wave; determining the property of the radome based on the received portion of the first electromagnetic wave and the received portion of the second electromagnetic wave; wherein the relative position between the at least one transmitting antenna and the at least one receiving antenna is maintained fixed. utilizing at least one transmitting antenna facing a first side of the radome and utilizing at least one receiving antenna facing a second side of the radome, wherein the first side is opposite to the second side; while the radome is positioned at a first distance from the at least one receiving antenna, the at least one transmitting antenna emitting a first electromagnetic wave and the at least one receiving antenna receiving a portion of the first electromagnetic wave; while the radome is positioned at a second distance from the at least one receiving antenna, the at least one transmitting antenna emitting a second electromagnetic wave and the at least one receiving antenna receiving a portion of the second electromagnetic wave; determining the property of the radome based on the received portion of the first electromagnetic wave and the received portion of the second electromagnetic wave; wherein the relative position between the at least one transmitting antenna and the at least one receiving antenna is maintained fixed.
A method of generating audio output, the method comprising: displaying a graphical user interface at a user device (110, 510, 810), the GUI representing an area having multiple regions, wherein multiple audio capture devices (110, 120, 130, 140; 510, 520; 810, 820, 830) are located in the area; receiving audio data (154, 156, 158; 506, 508) from each audio capture device of the multiple audio capture devices; receiving an input indicating a selected region of the multiple regions; generating, at the user device, the audio output based on data from a subset of the multiple audio capture devices, wherein each audio capture device in the subset is located in the selected region; wherein generating the audio output comprises: generating a non-target reference signal using a max-pooling operation from audio from a second subset of the multiple audio capture devices, wherein each audio capture device of the second subset is not located in the selected region; and performing noise reduction on the data from the subset using the non-target reference signal. displaying a graphical user interface at a user device (110, 510, 810), the GUI representing an area having multiple regions, wherein multiple audio capture devices (110, 120, 130, 140; 510, 520; 810, 820, 830) are located in the area; receiving audio data (154, 156, 158; 506, 508) from each audio capture device of the multiple audio capture devices; receiving an input indicating a selected region of the multiple regions; generating, at the user device, the audio output based on data from a subset of the multiple audio capture devices, wherein each audio capture device in the subset is located in the selected region; wherein generating the audio output comprises: generating a non-target reference signal using a max-pooling operation from audio from a second subset of the multiple audio capture devices, wherein each audio capture device of the second subset is not located in the selected region; and performing noise reduction on the data from the subset using the non-target reference signal. generating a non-target reference signal using a max-pooling operation from audio from a second subset of the multiple audio capture devices, wherein each audio capture device of the second subset is not located in the selected region; and performing noise reduction on the data from the subset using the non-target reference signal.
A wound dressing (100,200,300,400,500,600,900,1000,1100) for use in the applicationof negative pressure to a wound of a patient's body, comprising: a support member (102, 202, 302, 402, 502, 602, 902,1002,1102) having a first side support (1102a, 1402a) and a second side support (1102b, 1402b) coupled with a body portion (114,214, 314,414, 514, 614,714, 814, 914, 1014,1114,1414,1514, 1614); and a cover member (206, 1006,1106,1406,1506,1606) positionable over the support member; and the body portion is configured to be positioned above a skin surface surrounding the wound characterized in that: the first side support is rotatable about the body portion; the second sidesupport is rotatable about the body portion; the first side support is rotatable relative to the second side support so that a rotational position of the first side support and the second side support can be adjusted and such that the width of the support member can be adjusted. a support member (102, 202, 302, 402, 502, 602, 902,1002,1102) having a first side support (1102a, 1402a) and a second side support (1102b, 1402b) coupled with a body portion (114,214, 314,414, 514, 614,714, 814, 914, 1014,1114,1414,1514, 1614); and a cover member (206, 1006,1106,1406,1506,1606) positionable over the support member; and the body portion is configured to be positioned above a skin surface surrounding the wound characterized in that: the first side support is rotatable about the body portion; the second sidesupport is rotatable about the body portion; the first side support is rotatable relative to the second side support so that a rotational position of the first side support and the second side support can be adjusted and such that the width of the support member can be adjusted. the first side support is rotatable about the body portion; the second sidesupport is rotatable about the body portion; the first side support is rotatable relative to the second side support so that a rotational position of the first side support and the second side support can be adjusted and such that the width of the support member can be adjusted.
A solar cell module comprising: a plurality of interconnected solar cells, each of the solar cells comprising back junction solar cells having a front side that faces the sun during normal operation and a backside opposite the front side; a transparent cover over the front sides of the solar cells; a backsheet on the backsides of the solar cells; and characterized in that an encapsulant protectively bonding the solar cells and the backsheet, the encapsulant and the transparent cover collectively having a UV transmission curve with a stop band at less than 350nm wavelength and a volume specific resistance of at least 5x10 13 Ωcm, the encapsulant has the UV transmission curve that starts at 280nm. a plurality of interconnected solar cells, each of the solar cells comprising back junction solar cells having a front side that faces the sun during normal operation and a backside opposite the front side; a transparent cover over the front sides of the solar cells; a backsheet on the backsides of the solar cells; and characterized in that an encapsulant protectively bonding the solar cells and the backsheet, the encapsulant and the transparent cover collectively having a UV transmission curve with a stop band at less than 350nm wavelength and a volume specific resistance of at least 5x10 13 Ωcm, the encapsulant has the UV transmission curve that starts at 280nm.
A resin sheet which is formed by molding a resin composition into a sheet shape having an average thickness of from 80 μm to 250 μm, as measured in the description, which is a laminate of a first resin layer and a second resin layer formed of the resin composition, and which further has a metal foil on one surface of the laminate and a polyethylene terephthalate film on the other surface thereof, said resin composition comprising an epoxy resin monomer, a novolac resin containing a compound having a structural unit represented by the following general Formula, and a filler, in which a particle size distribution of the filler, measured using laser diffractometry, has peaks in the respective ranges of from 0.01 μm to less than 1 μm, from 1 μm to less than 10 μm, and from 10 μm to 100 μm, and the filler having particle sizes of from 10 μm to 100 μm contains boron nitride particles: wherein in the general Formula, R 1 represents an alkyl group, an aryl group, or an aralkyl group; each of R 2 and R 3 independently represents a hydrogen atom, an alkyl group, aryl group, or an aralkyl group; m represents a number from 0 to 2; and n represents a number from 1 to 7.
A controller for use in a switching power converter, comprising: a switch controller (138, 738); and a jitter generator circuit (140, 240, 740) configured to receive a drive signal (144, 244, 344) from the switch controller (138, 738) and generate a jitter signal (141, 241, 441, 484, 541, 590) having a frequency that is modulated lower as the switching frequency of the switching power converter is lowered and approaches the jitter frequency wherein as the frequency of the jitter signal is changed, the amplitude of the jitter signal remains the same, and wherein the switch controller is configured to be coupled to a power switch (134, 734) coupled to an energy transfer element (114, 714), wherein the switch controller is configured to receive a current sense signal (136, 736) representative of a drain current (142, 742) through the power switch, wherein the switch controller is configured to generate the drive signal to control switching of the power switch in response to the current sense signal and the jitter signal to control a transfer of energy from an input of the switching power converter to an output of the switching power converter, wherein the switch controller is configured to use the jitter signal to adjust one of a variable current limit, a frequency, an ON time, or an OFF time. a switch controller (138, 738); and a jitter generator circuit (140, 240, 740) configured to receive a drive signal (144, 244, 344) from the switch controller (138, 738) and generate a jitter signal (141, 241, 441, 484, 541, 590) having a frequency that is modulated lower as the switching frequency of the switching power converter is lowered and approaches the jitter frequency wherein as the frequency of the jitter signal is changed, the amplitude of the jitter signal remains the same, and wherein the switch controller is configured to be coupled to a power switch (134, 734) coupled to an energy transfer element (114, 714), wherein the switch controller is configured to receive a current sense signal (136, 736) representative of a drain current (142, 742) through the power switch, wherein the switch controller is configured to generate the drive signal to control switching of the power switch in response to the current sense signal and the jitter signal to control a transfer of energy from an input of the switching power converter to an output of the switching power converter, wherein the switch controller is configured to use the jitter signal to adjust one of a variable current limit, a frequency, an ON time, or an OFF time.