mhurhangee/patent-ind-claim-en huggingface dataset:
A consumer product comprising a detergent product and a container, the container comprising a box , a cover for the box, and a lock to reversibly maintain the cover in a closed position, the box comprising a detergent product, the box comprising a base , sidewalls and an opening , the cover comprising a top and flanks , the cover covering the opening and the cover covering at least a specific portion of a specific sidewall of the box when the cover is in the closed position, the lock comprising an actuator moveable from a locking position to an opening position by applying an actuation pressure onto the actuator when the cover is in the closed position, the actuator being connected to the specific portion, the flanks comprising an actuation area the actuation area facing the actuator and permitting displacing the actuator from the closing position to the opening position by applying the actuation pressure at the actuation area when the cover is in the closed position, the actuator being moveable from the opening position to the closing position by the actuator releasing an elastic force, the release of the elastic force occurring when the cover is placed in a specific releasing position, characterized in that at least one of the flanks and sidewalls comprises an alignment mark coinciding with the cover being in the closed position passed the specific releasing position.
An imaging system for a blood processing device comprising: an imaging unit configured to take a series of images of at least a portion of a blood component separation device , the blood component separation device configured to rotate about an axis and separate whole blood into a plurality of blood components, wherein the image unit includes a lens defining a lens plane and an image sensor defining an image plane , the lens plane not parallel to the image plane ; a light source directed at the blood component separation device and configured to generate pulses of light that illuminate the at least a portion of the blood component separation device during rotation of the blood component separation device , thereby allowing the imaging unit to take the series of images of the at least a portion of the blood component separation device ; a synchronizer configured to monitor a rotational position of the blood component separation device ; and a controller in communication with the imaging unit , the light source , and the synchronizer and configured to control the operation of at least one of the imaging unit and/or the light source based upon the rotational position of the blood component separation device such that each of the series of images is taken at the same rotational position of the blood component separation device . an imaging unit configured to take a series of images of at least a portion of a blood component separation device , the blood component separation device configured to rotate about an axis and separate whole blood into a plurality of blood components, wherein the image unit includes a lens defining a lens plane and an image sensor defining an image plane , the lens plane not parallel to the image plane ; a light source directed at the blood component separation device and configured to generate pulses of light that illuminate the at least a portion of the blood component separation device during rotation of the blood component separation device , thereby allowing the imaging unit to take the series of images of the at least a portion of the blood component separation device ; a synchronizer configured to monitor a rotational position of the blood component separation device ; and a controller in communication with the imaging unit , the light source , and the synchronizer and configured to control the operation of at least one of the imaging unit and/or the light source based upon the rotational position of the blood component separation device such that each of the series of images is taken at the same rotational position of the blood component separation device .
An apparatus for resolving individual signals in detector output data, each signal being a pulse corresponding to an individual detection event occurring in a detector having a pulse shape with a rising edge and a falling edge above a baseline and the detector output data originating from the detector, the apparatus comprising: an analog front end configured to perform analog to digital conversion of the detector output data to obtain digitized detector output data; and a processing circuit configured to: transform the digitized detector output data such that the rising edge of each pulse is compressed and the falling edge of each pulse is extended so as to produce digital stepped data comprising a transformed stream of samples approximating an ideal step function and, after the transformation, perform pulse pile-up recovery and detect each signal at least partially based on the digital stepped data; and estimate one or more of a signal energy or a time of arrival of each detected signal at least partially based on the digital stepped data . an analog front end configured to perform analog to digital conversion of the detector output data to obtain digitized detector output data; and a processing circuit configured to: transform the digitized detector output data such that the rising edge of each pulse is compressed and the falling edge of each pulse is extended so as to produce digital stepped data comprising a transformed stream of samples approximating an ideal step function and, after the transformation, perform pulse pile-up recovery and detect each signal at least partially based on the digital stepped data; and estimate one or more of a signal energy or a time of arrival of each detected signal at least partially based on the digital stepped data . transform the digitized detector output data such that the rising edge of each pulse is compressed and the falling edge of each pulse is extended so as to produce digital stepped data comprising a transformed stream of samples approximating an ideal step function and, after the transformation, perform pulse pile-up recovery and detect each signal at least partially based on the digital stepped data; and estimate one or more of a signal energy or a time of arrival of each detected signal at least partially based on the digital stepped data .
Central closing unit for a lifting sliding door wing (1, 2; 1', 2'), at least comprising: - a central closing profile , which is fastenable to a visible side (10.2) of a sliding door wing profile in such a manner that a projecting profile section of the central closing profile is arranged at a distance from the visible side (10.2), with a seal receiving groove being formed, and pointing with a locking projection (21.5) in the direction of a window filling , - a sealing profile , which is arranged in the seal receiving groove, and - a covering profile , which can be arranged on the rear side (10.3) of the sliding door wing profile , the rear side facing away from the window filling ; characterized in that the central closing profile comprises a fastening portion (21.1) and a sealing portion (21.2), - in that the locking projection (21.5) is formed on the fastening portion (21.1) and the fastening portion (21.1) is received between the visible side (10.2) of the sliding door wing profile , a short covering profile limb (22.1) of the covering profile , said covering profile limb extending parallel to the visible side (10.2), and a long covering profile limb (22.2) protruding beyond the visible side (10.2) of the sliding door wing profile , and - in that the position of the central closing profile in the longitudinal extent of the wing (1, 2; 1', 2') can be changed relative to the short covering profile limb (22.1), and the distance between the inner side of the long covering profile limb (22.2) and the central closing profile can be adjusted. - a central closing profile , which is fastenable to a visible side (10.2) of a sliding door wing profile in such a manner that a projecting profile section of the central closing profile is arranged at a distance from the visible side (10.2), with a seal receiving groove being formed, and pointing with a locking projection (21.5) in the direction of a window filling , - a sealing profile , which is arranged in the seal receiving groove, and - a covering profile , which can be arranged on the rear side (10.3) of the sliding door wing profile , the rear side facing away from the window filling ; characterized in that the central closing profile comprises a fastening portion (21.1) and a sealing portion (21.2), - in that the locking projection (21.5) is formed on the fastening portion (21.1) and the fastening portion (21.1) is received between the visible side (10.2) of the sliding door wing profile , a short covering profile limb (22.1) of the covering profile , said covering profile limb extending parallel to the visible side (10.2), and a long covering profile limb (22.2) protruding beyond the visible side (10.2) of the sliding door wing profile , and - in that the position of the central closing profile in the longitudinal extent of the wing (1, 2; 1', 2') can be changed relative to the short covering profile limb (22.1), and the distance between the inner side of the long covering profile limb (22.2) and the central closing profile can be adjusted.
An intravascular device, comprising: a core having a proximal section and a distal section; an outer tube coupled to the core such that the distal section of the core passes into and is encompassed by the outer tube , the outer tube and the core defining an annular space between an inner surface of the outer tube and the distal section of the core disposed within the outer tube; a radiopaque marker coil ; and one or more centering mechanisms positioned within at least a portion of the annular space, wherein the one or more centering mechanisms are configured to limit movement of the core out of a radially centered position within the outer tube , wherein the one or more centering mechanisms extend at least 15% of a length of the outer tube , wherein the one or more centering mechanisms comprise a first centering coil and a second centering coil , wherein the second centering coil is positioned proximal of the marker coil , wherein the first centering coil has a larger inner diameter than the second centering coil and is positioned to overlap and extend over at least a portion of the second centering coil . a core having a proximal section and a distal section; an outer tube coupled to the core such that the distal section of the core passes into and is encompassed by the outer tube , the outer tube and the core defining an annular space between an inner surface of the outer tube and the distal section of the core disposed within the outer tube; a radiopaque marker coil ; and one or more centering mechanisms positioned within at least a portion of the annular space, wherein the one or more centering mechanisms are configured to limit movement of the core out of a radially centered position within the outer tube , wherein the one or more centering mechanisms extend at least 15% of a length of the outer tube , wherein the one or more centering mechanisms comprise a first centering coil and a second centering coil , wherein the second centering coil is positioned proximal of the marker coil , wherein the first centering coil has a larger inner diameter than the second centering coil and is positioned to overlap and extend over at least a portion of the second centering coil .
An integrated circuit comprising: an elongate substrate having a length, a thickness, and a width, the length being at least twenty times the width, wherein on the elongate substrate there is provided: a plurality of nozzles arranged in a column along the length of the elongate substrate, a plurality of memory cells arranged adjacent to the plurality of nozzles, each memory cell corresponding to a nozzle, and fluid actuation logic to either eject fluid from selected nozzles or access memory cells corresponding to the selected nozzles. a plurality of nozzles arranged in a column along the length of the elongate substrate, a plurality of memory cells arranged adjacent to the plurality of nozzles, each memory cell corresponding to a nozzle, and fluid actuation logic to either eject fluid from selected nozzles or access memory cells corresponding to the selected nozzles.
A nonaqueous electrolyte solution comprising: a nonaqueous solvent containing acetonitrile and vinylene carbonate, and a compound represented by the following general formula : R 1 -A-R 2 wherein A represents a divalent group having a structure represented by any one of the following formulas (1-2) to (1-5): and R 1 and R 2 each independently represent an alkyl group having 1 to 4 carbon atoms optionally substituted with an aryl group or a halogen atom; or a vinylidene group optionally substituted with a halogen atom; or an aryl group optionally substituted with an alkyl group or a halogen atom; or R 1 and R 2 are bonded to each other together with A to form a cyclic structure optionally having an unsaturated bond, wherein the content of the acetonitrile is 5% by volume or more and 97% by volume or less based on the total amount of the nonaqueous solvent, wherein the total content of the vinylene carbonate and the compound represented by the general formula is 0.1% by volume or more and less than 10% by volume based on the total amount of the nonaqueous solvent, and wherein the content of the vinylene carbonate is less than the content of the compound represented by the general formula . a nonaqueous solvent containing acetonitrile and vinylene carbonate, and a compound represented by the following general formula : R 1 -A-R 2 wherein A represents a divalent group having a structure represented by any one of the following formulas (1-2) to (1-5): and R 1 and R 2 each independently represent an alkyl group having 1 to 4 carbon atoms optionally substituted with an aryl group or a halogen atom; or a vinylidene group optionally substituted with a halogen atom; or an aryl group optionally substituted with an alkyl group or a halogen atom; or R 1 and R 2 are bonded to each other together with A to form a cyclic structure optionally having an unsaturated bond, wherein the content of the acetonitrile is 5% by volume or more and 97% by volume or less based on the total amount of the nonaqueous solvent, wherein the total content of the vinylene carbonate and the compound represented by the general formula is 0.1% by volume or more and less than 10% by volume based on the total amount of the nonaqueous solvent, and wherein the content of the vinylene carbonate is less than the content of the compound represented by the general formula .
A brake drum and electric motor engagement assembly for a vehicle, comprising: a wheel hub mounted for rotation around a wheel spindle , an electric motor unit having an electric motor rotor, an electric motor stator, and power electronics, the electric motor rotor including a web portion configured to partially enclose the remainder of the electric motor unit and terminate in a circumferentially extending rim , a brake drum defining an engagement surface for drum brake linings , the brake drum having an outboard end securable to the wheel hub , an open inboard end, and a circumferential wall extending between the outboard and inboard ends and surrounding the engagement surface , characterized by a reinforcing ring interlocking the circumferentially extending rim of the web portion and the circumferential wall of the brake drum , the reinforcing ring being secured to the circumferentially extending rim and to the circumferential wall of the brake drum , wherein the reinforcing ring is secured to the circumferential wall of the brake drum at a location disposed axially between the rim of the web portion and the engagement surface of the brake drum . a wheel hub mounted for rotation around a wheel spindle , an electric motor unit having an electric motor rotor, an electric motor stator, and power electronics, the electric motor rotor including a web portion configured to partially enclose the remainder of the electric motor unit and terminate in a circumferentially extending rim , a brake drum defining an engagement surface for drum brake linings , the brake drum having an outboard end securable to the wheel hub , an open inboard end, and a circumferential wall extending between the outboard and inboard ends and surrounding the engagement surface , characterized by a reinforcing ring interlocking the circumferentially extending rim of the web portion and the circumferential wall of the brake drum , the reinforcing ring being secured to the circumferentially extending rim and to the circumferential wall of the brake drum , wherein the reinforcing ring is secured to the circumferential wall of the brake drum at a location disposed axially between the rim of the web portion and the engagement surface of the brake drum .
An imaging device comprising: a first semiconductor substrate including: a plurality of unit pixels formed in a pixel region , each of the unit pixel including: a photoelectric conversion unit coupled to a first well having a first potential; and a readout transistor coupled to the photoelectric conversion unit ; and a second semiconductor substrate including a peripheral circuit region coupled to a second well having a second potential other than the first potential, wherein the peripheral circuit region includes an analog to digital converter coupled to the unit pixel through a signal line and a negative voltage generation unit configured to set the potential of each of a pixel ground and the pixel region as a negative potential that is lower than the well potential of the peripheral circuit ground and the peripheral circuit region. a first semiconductor substrate including: a plurality of unit pixels formed in a pixel region , each of the unit pixel including: a photoelectric conversion unit coupled to a first well having a first potential; and a readout transistor coupled to the photoelectric conversion unit ; and a photoelectric conversion unit coupled to a first well having a first potential; and a readout transistor coupled to the photoelectric conversion unit ; and a second semiconductor substrate including a peripheral circuit region coupled to a second well having a second potential other than the first potential, wherein the peripheral circuit region includes an analog to digital converter coupled to the unit pixel through a signal line and a negative voltage generation unit configured to set the potential of each of a pixel ground and the pixel region as a negative potential that is lower than the well potential of the peripheral circuit ground and the peripheral circuit region.
A method for producing a three-dimensional preform having a generally C-shape cross-section, said method comprising: (a) laying up four or more layers of fiber-containing material on a tool surface to form a preform blank having an undulating portion and a non-undulating or flat portion adjacent to the undulating portion, said undulating portion comprising a wavy edge and a plurality of undulations along said wavy edge, and said tool surface comprising undulations corresponding to the undulating portion of the preform blank ; (b) providing a molding tool having a cavity defined by a first inner curved surface D, a second inner curved surface E, and a bottom surface F between surfaces D and E; (c) enclosing the preform blank between two flexible diaphragms ; (d) heating the preform blank ; and (e) shaping the enclosed preform blank in the cavity of the molding tool by applying tension to the diaphragms such that the undulating portion of the preform blank flattens out and conforms to surfaces E and F of the molding tool and the non-undulating or flat portion of the preform blank conforms to surface D of the molding tool . (a) laying up four or more layers of fiber-containing material on a tool surface to form a preform blank having an undulating portion and a non-undulating or flat portion adjacent to the undulating portion, said undulating portion comprising a wavy edge and a plurality of undulations along said wavy edge, and said tool surface comprising undulations corresponding to the undulating portion of the preform blank ; (b) providing a molding tool having a cavity defined by a first inner curved surface D, a second inner curved surface E, and a bottom surface F between surfaces D and E; (c) enclosing the preform blank between two flexible diaphragms ; (d) heating the preform blank ; and (e) shaping the enclosed preform blank in the cavity of the molding tool by applying tension to the diaphragms such that the undulating portion of the preform blank flattens out and conforms to surfaces E and F of the molding tool and the non-undulating or flat portion of the preform blank conforms to surface D of the molding tool .
A method performed at an optical receiver , the method comprising: receiving an optical signal over an optical communications channel established between the optical receiver and an optical transmitter , wherein the received optical signal comprises a degraded version of a modulated optical signal generated at the optical transmitter, and wherein the received optical signal represents N information streams that are partially correlated, wherein N > 1; determining N sets of received digital signals corresponding to N respective frequency division multiplexing, FDM, channels of the received optical signal at a single timeslot; determining N sets of preliminary digital signal estimates using the N sets of received digital signals and an inverse pseudo FDM, pFDM, transformation, wherein the inverse pFDM transformation is an operation applied to the received digital signals thereby resulting in the preliminary digital signal estimates, wherein each set of preliminary digital signal estimates is determined from a respective combination of the N sets of received digital signals, and wherein each respective combination is determined from the inverse pFDM transformation; and determining N multi-bit symbol estimates using the N respective sets of preliminary digital signal estimates, wherein, as a result of modulation of the modulated optical signal at the optical transmitter, the N information streams experience frequency-dependent effects of M effective FDM channels, wherein M ≥ 1, and wherein M < N, such that frequency-dependent signal degradations are averaged. receiving an optical signal over an optical communications channel established between the optical receiver and an optical transmitter , wherein the received optical signal comprises a degraded version of a modulated optical signal generated at the optical transmitter, and wherein the received optical signal represents N information streams that are partially correlated, wherein N > 1; determining N sets of received digital signals corresponding to N respective frequency division multiplexing, FDM, channels of the received optical signal at a single timeslot; determining N sets of preliminary digital signal estimates using the N sets of received digital signals and an inverse pseudo FDM, pFDM, transformation, wherein the inverse pFDM transformation is an operation applied to the received digital signals thereby resulting in the preliminary digital signal estimates, wherein each set of preliminary digital signal estimates is determined from a respective combination of the N sets of received digital signals, and wherein each respective combination is determined from the inverse pFDM transformation; and determining N multi-bit symbol estimates using the N respective sets of preliminary digital signal estimates, wherein, as a result of modulation of the modulated optical signal at the optical transmitter, the N information streams experience frequency-dependent effects of M effective FDM channels, wherein M ≥ 1, and wherein M < N, such that frequency-dependent signal degradations are averaged.
A compound represented by the formula or an internal salt or a pharmaceutically acceptable salt thereof.