mhurhangee/ep-ind-claims huggingface dataset:
An isolated antibody, or antigen-binding fragment thereof, that: (a) binds to complement component human C5; (b) inhibits the cleavage of C5 into fragments C5a and C5b; and (c) comprises: (i) a heavy chain CDR1 comprising the amino acid sequence depicted in SEQ ID NO:23, (ii) a heavy chain CDR2 comprising the amino acid sequence depicted in SEQ ID NO:19, (iii) a heavy chain CDR3 comprising the amino acid sequence depicted in SEQ ID NO:3, (iv) a light chain CDR1 comprising the amino acid sequence depicted in SEQ ID NO:4, (v) a light chain CDR2 comprising the amino acid sequence depicted in SEQ ID NO:5, (vi) a light chain CDR3 comprising the amino acid sequence depicted in SEQ ID NO:6, and (vii) the heavy chain constant region depicted in SEQ ID NO:13. (a) binds to complement component human C5; (b) inhibits the cleavage of C5 into fragments C5a and C5b; and (c) comprises: (i) a heavy chain CDR1 comprising the amino acid sequence depicted in SEQ ID NO:23, (ii) a heavy chain CDR2 comprising the amino acid sequence depicted in SEQ ID NO:19, (iii) a heavy chain CDR3 comprising the amino acid sequence depicted in SEQ ID NO:3, (iv) a light chain CDR1 comprising the amino acid sequence depicted in SEQ ID NO:4, (v) a light chain CDR2 comprising the amino acid sequence depicted in SEQ ID NO:5, (vi) a light chain CDR3 comprising the amino acid sequence depicted in SEQ ID NO:6, and (vii) the heavy chain constant region depicted in SEQ ID NO:13.
A cargo door for an aircraft, comprising: a plurality of locking devices, spaced horizontally in proximity to a lower horizontal edge of the cargo door; at least one vent panel arranged in the cargo door; a manually operated control handle arranged on the cargo door; a torsion shaft extending near said edge; a plurality of actuation pins supported and rotationally driven by the torsion shaft to lock and unlock the locking devices; a first drive which connects the control handle to the torsion shaft to rotate the torsion shaft following a locking or unlocking command given to the control handle; a second drive which connects the torsion shaft to the vent panel to open or close the vent panel following a rotation of the torsion shaft; wherein the torsion shaft is a double shaft comprising two coaxial and rotationally integral shafts, with an inner shaft and an outer tubular shaft, and wherein the inner shaft has a smaller outer diameter than the inner diameter of the outer shaft, whereby there is a predetermined transverse gap between an outer surface of a main part of the inner shaft and a part of the inner cavity of the outer shaft; characterized in that at the opposite ends of the inner shaft two respective centering bushings are mounted, each interposed between the inner cavity of the outer shaft and an end of the inner shaft or of a segment that composes the inner shaft. a plurality of locking devices, spaced horizontally in proximity to a lower horizontal edge of the cargo door; at least one vent panel arranged in the cargo door; a manually operated control handle arranged on the cargo door; a torsion shaft extending near said edge; a plurality of actuation pins supported and rotationally driven by the torsion shaft to lock and unlock the locking devices; a first drive which connects the control handle to the torsion shaft to rotate the torsion shaft following a locking or unlocking command given to the control handle; a second drive which connects the torsion shaft to the vent panel to open or close the vent panel following a rotation of the torsion shaft; wherein the torsion shaft is a double shaft comprising two coaxial and rotationally integral shafts, with an inner shaft and an outer tubular shaft, and wherein the inner shaft has a smaller outer diameter than the inner diameter of the outer shaft, whereby there is a predetermined transverse gap between an outer surface of a main part of the inner shaft and a part of the inner cavity of the outer shaft; characterized in that at the opposite ends of the inner shaft two respective centering bushings are mounted, each interposed between the inner cavity of the outer shaft and an end of the inner shaft or of a segment that composes the inner shaft.
A process for screening polymer from a polymer-lean vapor stream, whereby the process comprises the steps of: A) separating an effluent stream (a) comprising the polymer and a first mixture of hydrocarbons into a polymer-rich stream (b) and the polymer-lean vapor stream (c); B) spraying a condensed vapor composition stream (d) comprising a condensed vapor composition comprising a second mixture of hydrocarbons into the polymer-lean vapor stream (c); C) screening the polymer-lean vapor stream (c) to obtain a screened condensed vapor composition stream (f) comprising the polymer and the condensed vapor composition. A) separating an effluent stream (a) comprising the polymer and a first mixture of hydrocarbons into a polymer-rich stream (b) and the polymer-lean vapor stream (c); B) spraying a condensed vapor composition stream (d) comprising a condensed vapor composition comprising a second mixture of hydrocarbons into the polymer-lean vapor stream (c); C) screening the polymer-lean vapor stream (c) to obtain a screened condensed vapor composition stream (f) comprising the polymer and the condensed vapor composition.
Analytical method for computing a video hologram of a scene (3D-S), which has been decomposed into a multiplicity of object points, for use for a holographic reproduction device having at least one light modulator means, in which a visibility region within a periodicity interval of the reconstructed scene of the video hologram is defined, in which subsequently due to the visibility region together with each object point of the scene (3D-S) to be reconstructed the position and the size of a sub-hologram on the light modulator means are determined by way of tracing the visibility region through the object point to be reconstructed back to the light modulator means, wherein a modulator region corresponds to the region of the sub-hologram on the light modulator means, wherein for each modulator region a sub-hologram of the object point to be reconstructed is calculated and the total hologram (HΣ SLM) is formed from a superposition of sub-holograms, characterized in that the complex hologram values of a sub-hologram are ascertained from the wavefront of the object point that is respectively to be reconstructed in a modulator region of the light modulator means by way of computing the modulation functions of an imaging element which is modelled in the modulator region and in whose focal point the object point to be reconstructed is located, with which modulation functions the sub-hologram of said object point is presentable.
Electronic control unit for motor vehicles, comprising a tubular housing (200, 300, 400), having at least one open end face (102, 104), a printed circuit board (210, 310, 410) which is equipped with electrical and/or electronic components (230, 240) and which is inserted into the housing (200, 300, 400) through an end face (102, 104, 302, 304), wherein an open end face (102, 104, 302, 304) is closed off by an end element (250, 350, 360, 450), characterized in that the end element (250, 350, 360, 450) has a mechanical securing means (252, 405) for at least one electrical and/or electronic component (220, 422, 424, 426) in which the electrical and/or electronic component (220, 422, 424, 426) is arranged in such a way that its longitudinal axis runs parallel to the plane of the printed circuit board (210, 310, 410), and in that the end element (250, 350, 360) has at least one contact-forming element (237, 355) for forming electrical contact between the electrical and/or electronic components (220, 322, 324, 422, 424, 426), arranged in the end element (250, 350, 360, 450), and the printed circuit board (210, 310, 410).
A metal plate used for manufacturing a deposition mask, the metal plate including a first surface and a second surface positioned on the opposite side of the first surface, and containing iron and nickel, the metal plate comprising: particles containing as a main component an element other than iron and nickel, the main component being an element having the highest weight% of elements contained in the particles, wherein: in a sample including the first surface and the second surface of the metal plate, the following conditions, and regarding the particles are satisfied: the number of the particles having an equivalent circle diameter of 1 μm or more is 50 or more and 3000 or less per 1 mm 3 in the sample; and the number of the particles having an equivalent circle diameter of 3 μm or more is 50 or less per 1 mm 3 in the sample, and the number of the particles having an equivalent circle diameter of 5 μm or more is 20 or less per 1 mm 3 in the sample, wherein the number of the particles per 1 mm 3 in the sample is determined as described in the description, and wherein a first ratio of the metal plate is 70% or more; the first ratio is a ratio of a first quantity to a total quantity; the total quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more; and the first quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more and less than 3 μm. in a sample including the first surface and the second surface of the metal plate, the following conditions, and regarding the particles are satisfied: the number of the particles having an equivalent circle diameter of 1 μm or more is 50 or more and 3000 or less per 1 mm 3 in the sample; and the number of the particles having an equivalent circle diameter of 3 μm or more is 50 or less per 1 mm 3 in the sample, and the number of the particles having an equivalent circle diameter of 5 μm or more is 20 or less per 1 mm 3 in the sample, wherein the number of the particles per 1 mm 3 in the sample is determined as described in the description, and wherein the number of the particles having an equivalent circle diameter of 1 μm or more is 50 or more and 3000 or less per 1 mm 3 in the sample; and the number of the particles having an equivalent circle diameter of 3 μm or more is 50 or less per 1 mm 3 in the sample, and the number of the particles having an equivalent circle diameter of 5 μm or more is 20 or less per 1 mm 3 in the sample, wherein a first ratio of the metal plate is 70% or more; the first ratio is a ratio of a first quantity to a total quantity; the total quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more; and the first quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more and less than 3 μm.
A dual power automatic transfer switch mechanism, comprising: a switch housing; a first spring; a second spring; a first pin; the first spring acts between the first pin and the switch housing; and a second pin the second spring acts between the second pin and the switch housing; characterized in that, the first pin is disposed on a first movable contact corresponding to a first power supply; the second pin is disposed on a second movable contact corresponding to a second power supply; a first driving disk is configured to actuate the first pin to move between a first power-on position and a first power-off position; a second driving disk is configured to actuate the second pin to move between a second power-on position and a second power-off position; wherein the first driving disk and the second driving disk are configured to rotate synchronously such that: when the first pin is in the first power-on position, the second pin is in the second power-off position; when the first pin is in the first power-off position, the second pin is in the second power-on position; or when the first pin is in the first power-off position, the second pin is in the second power-off position. a switch housing; a first spring; a second spring; a first pin; the first spring acts between the first pin and the switch housing; and a second pin the second spring acts between the second pin and the switch housing; characterized in that, the first pin is disposed on a first movable contact corresponding to a first power supply; the second pin is disposed on a second movable contact corresponding to a second power supply; a first driving disk is configured to actuate the first pin to move between a first power-on position and a first power-off position; a second driving disk is configured to actuate the second pin to move between a second power-on position and a second power-off position; wherein the first driving disk and the second driving disk are configured to rotate synchronously such that: when the first pin is in the first power-on position, the second pin is in the second power-off position; when the first pin is in the first power-off position, the second pin is in the second power-on position; or when the first pin is in the first power-off position, the second pin is in the second power-off position. when the first pin is in the first power-on position, the second pin is in the second power-off position; when the first pin is in the first power-off position, the second pin is in the second power-on position; or when the first pin is in the first power-off position, the second pin is in the second power-off position.
Device for protecting a rear panel forming part of a bodywork subassembly comprising a motor vehicle, said bodywork subassembly comprising a bumper, said rear panel and a support for supporting the bumper which extends longitudinally between a wing of the rear panel and a wall of the bumper which extend substantially along a transverse-vertical plane, the bumper comprising at least one relief extending longitudinally projecting towards the rear panel, characterized in that the support is provided with a ramp which extends transversely while being inclined towards the front of the vehicle relative to the substantially transverse-vertical plane of extension of the wing of the rear panel and in that said ramp is provided at the base of a support wall of the support via which the support is longitudinally applied against the wing of the rear panel, against which said at least one relief bears so as to be guided in offset from the rear panel under the effect of an impact supported by the bumper, said impact bringing said bumper and the relief closer to the support.
Suction nozzle for a portable hard surface suction appliance for squeegeeing and suctioning liquid from a hard surface, in particular from a window pane, comprising a suction nozzle housing in which a suction channel that is connectable to a source of vacuum is arranged and on the housing face side of which an elastically deformable squeegee lip and an elastically deformable support lip are arranged, which protrude out of the suction nozzle housing and between which a suction space is defined, which is adjoined by the suction channel, wherein the squeegee lip comprises at its front end region protruding out of the suction nozzle housing a squeegee lip edge which is able to abut against the hard surface to be cleaned, and wherein the support lip comprises at its front end region protruding out of the suction nozzle housing a support lip edge which is able to abut against the hard surface to be cleaned, wherein the squeegee lip edge is arranged behind the support lip edge in relation to a squeegeeing direction of the suction nozzle, and the support lip comprises at least one perforation, and wherein the squeegee lip comprises a longitudinal portion projecting forwards from the housing face side in the direction pointing away from the suction channel, characterized in that the longitudinal portion of the squeegee lip, projecting forwards from the housing face side in the direction pointing away from the suction channel, is adjoined by at least one squeegee lip protrusion which in the undeformed basic position of the squeegee lip is inclined relative to the longitudinal portion and which forms a squeegee lip edge at its free end.
An information indication method, wherein the method comprises: determining, by a base station, that a port used to transmit a first reference signal and a port used to transmit a second reference signal are multiplexed onto a multiplexed port, wherein, each port refers to a time-frequency location on an OFDM symbol of the corresponding reference signal; generating, by the base station, information indicating multiplexing of the ports, and sending the information indicating multiplexing of the ports; and sending, by the base station, the first reference signal and the second reference signal on the multiplexed port; wherein a same analog beam is used for the port used to transmit the first reference signal and the port used to transmit the second reference signal; wherein the first reference signal and the second reference signal are a DMRS signal and a CSI-RS signal respectively. determining, by a base station, that a port used to transmit a first reference signal and a port used to transmit a second reference signal are multiplexed onto a multiplexed port, wherein, each port refers to a time-frequency location on an OFDM symbol of the corresponding reference signal; generating, by the base station, information indicating multiplexing of the ports, and sending the information indicating multiplexing of the ports; and sending, by the base station, the first reference signal and the second reference signal on the multiplexed port; wherein a same analog beam is used for the port used to transmit the first reference signal and the port used to transmit the second reference signal; wherein the first reference signal and the second reference signal are a DMRS signal and a CSI-RS signal respectively.
An apparatus comprising: a photodetector area comprising a first photodetector area (311, 311-1 - 311-22) and a second photodetector area (310, 310-1 - 310-29), and an optical blocking filter configured to filter light incident on the second photodetector area, wherein the first and second photodetector areas have co-planar interlocking shapes, so that the shape of the first photodetector area limits movements of the second photodetector area in at least two directions in a two-dimensional co-planar plane, the first photodetector area comprises a plurality of first subareas (311-1 - 311-22) that extend from an edge of the photodetector area into the photodetector area, and the second photodetector area comprises a plurality of second subareas (310-1 - 310-29) that extend from an edge of the photodetector area into the photodetector area, wherein at least one of the first subareas has a shape that interlocks with a shape of at least one second subarea, and at least one of the first subareas and/or at least one of the second subareas extends from the edge of the photodetector area more than halfway across the photodetector area, towards an opposite edge of the photodetector area. a photodetector area comprising a first photodetector area (311, 311-1 - 311-22) and a second photodetector area (310, 310-1 - 310-29), and an optical blocking filter configured to filter light incident on the second photodetector area, wherein the first and second photodetector areas have co-planar interlocking shapes, so that the shape of the first photodetector area limits movements of the second photodetector area in at least two directions in a two-dimensional co-planar plane, the first photodetector area comprises a plurality of first subareas (311-1 - 311-22) that extend from an edge of the photodetector area into the photodetector area, and the second photodetector area comprises a plurality of second subareas (310-1 - 310-29) that extend from an edge of the photodetector area into the photodetector area, wherein at least one of the first subareas has a shape that interlocks with a shape of at least one second subarea, and at least one of the first subareas and/or at least one of the second subareas extends from the edge of the photodetector area more than halfway across the photodetector area, towards an opposite edge of the photodetector area.
A power amplifier having a plurality of loads (R20, R1) with respective first and second load terminals, the power amplifier comprising: an inductor having a first inductor terminal and a second inductor terminal; a plurality of controllable switches (S9, S4, S2, S8, S12, S11) coupled to the inductor, said switches for routing paths through the loads and the inductor, the switches being configured to allow the inductor to serve a plurality of circuit functions such that the inductor is a pooled resource while producing output signals for the plurality of loads, the switches further being arranged to be controlled in a plurality of different modes to produce the output signals, wherein the plurality of different modes include (i) different modes for charging the inductor and (ii) different modes for discharging the inductor; and a modulator element; wherein, for each of the plurality of loads, the power amplifier includes: a first feedback path from the first load terminal to the modulator element; and a second feedback path from the second load terminal to the modulator element; wherein the modulator element is operationally coupled to control opening and closing of the plurality of switches directing power through the inductor and through the loads; wherein the modulator element is responsive to an input signal to the modulator element; and wherein the modulator element includes a quantizer. an inductor having a first inductor terminal and a second inductor terminal; a plurality of controllable switches (S9, S4, S2, S8, S12, S11) coupled to the inductor, said switches for routing paths through the loads and the inductor, the switches being configured to allow the inductor to serve a plurality of circuit functions such that the inductor is a pooled resource while producing output signals for the plurality of loads, the switches further being arranged to be controlled in a plurality of different modes to produce the output signals, wherein the plurality of different modes include (i) different modes for charging the inductor and (ii) different modes for discharging the inductor; and a modulator element; wherein, for each of the plurality of loads, the power amplifier includes: a first feedback path from the first load terminal to the modulator element; and a second feedback path from the second load terminal to the modulator element; a first feedback path from the first load terminal to the modulator element; and a second feedback path from the second load terminal to the modulator element; wherein the modulator element is operationally coupled to control opening and closing of the plurality of switches directing power through the inductor and through the loads; wherein the modulator element is responsive to an input signal to the modulator element; and wherein the modulator element includes a quantizer.