mhurhangee/ep-ind-claims huggingface dataset:
An acoustic monitoring system configured to input an acoustic sensor signal responsive to tracheal sounds of a person and generate breath tags and a respiration rate, the breath tags representing the acoustic envelope of the tracheal sounds and the respiration rate representing the inverse period of the acoustic envelope, the breath tags and respiration rate having a sufficiently low bandwidth to share a data channel with other physiological parameters, the acoustic monitor comprising: an acoustic sensor input; an A/D converter that digitizes the sensor input and outputs a digitized sensor signal; a decimation filter and mixer that reduces the data rate of the digitized sensor signal and outputs a digitized raw audio; and an acoustic parameter processor configured to generate a respiration rate, respiration beeps and breath tags in response to the digitized raw audio, wherein the respiration beeps include a high-frequency tone to indicate inspiration and a low-frequency tone different from the high-frequency tone to indicate expiration. an acoustic sensor input; an A/D converter that digitizes the sensor input and outputs a digitized sensor signal; a decimation filter and mixer that reduces the data rate of the digitized sensor signal and outputs a digitized raw audio; and an acoustic parameter processor configured to generate a respiration rate, respiration beeps and breath tags in response to the digitized raw audio, wherein the respiration beeps include a high-frequency tone to indicate inspiration and a low-frequency tone different from the high-frequency tone to indicate expiration.
A screw magazine for receiving screws vertically in at least two rows, the screw magazine comprising a bottom plate and a top plate both provided with a plurality of holes (5, 6) facing each other in pairs, the holes in the top plate being formed for receiving the shank of a screw and the holes in the bottom plate being formed for receiving the screw tip, characterized in that between the bottom plate and the top plate there is a supporting grid of partition walls extending perpendicular to one another, and in that the top plate and the bottom plate each have a peripheral edge collar (27a, 27b) which extends perpendicular to the top plate and the bottom plate, respectively, the collars encompassing the supporting grid.
Scissor stay arrangement (10, 10') for a sliding door or a sliding window, the scissor stay arrangement (10, 10') comprising the following: a) a first scissor stay (12, 12') having a first stay arm (14, 14') and a control arm (16, 16') arranged pivotably on the first stay arm (14, 14'); b) two sliders (20, 20', 22, 22'); c) a first connecting rod (24, 24') for connecting the two sliders (20, 20', 22, 22'), the first connecting rod (24, 24') being able to be mounted in two different arrangement positions on the sliders (20, 20', 22, 22'); the first scissor stay (12, 12') and the first of the two sliders (20, 20') being arranged on the first connecting rod (24, 24') and the first slider (20, 20') being able to be arranged in a form-fitting manner in portions on the first connecting rod (24, 24') in a first position and a second position of the first connecting rod (24, 24'), the first connecting rod (24, 24'), in the second position, being rotated relative to the first position by 180° with respect to an axis perpendicular to the longitudinal axis of the first connecting rod (24, 24'), such that the first connecting rod (24, 24') can thereby be adapted to two different purposes, characterized in that the first slider (20, 20') has, on the side thereof facing away from the first connecting rod (24, 24'), a first receiving recess (42, 42') for a first spring element and, on the side thereof facing the first connecting rod (24, 24'), a second receiving recess for a second spring element. a) a first scissor stay (12, 12') having a first stay arm (14, 14') and a control arm (16, 16') arranged pivotably on the first stay arm (14, 14'); b) two sliders (20, 20', 22, 22'); c) a first connecting rod (24, 24') for connecting the two sliders (20, 20', 22, 22'), the first connecting rod (24, 24') being able to be mounted in two different arrangement positions on the sliders (20, 20', 22, 22'); the first connecting rod (24, 24'), in the second position, being rotated relative to the first position by 180° with respect to an axis perpendicular to the longitudinal axis of the first connecting rod (24, 24'), such that the first connecting rod (24, 24') can thereby be adapted to two different purposes, characterized in that the first slider (20, 20') has, on the side thereof facing away from the first connecting rod (24, 24'), a first receiving recess (42, 42') for a first spring element and, on the side thereof facing the first connecting rod (24, 24'), a second receiving recess for a second spring element.
A method of removing cobalt deposits in a reactor for the cobalt-catalyzed high-pressure hydroformylation of olefins by treatment with aqueous nitric acid, wherein the reactor is at least partly filled with aqueous nitric acid, the acid concentration and/or the cobalt ion concentration of the aqueous nitric acid is/are measured during the treatment and, if the change in the acid concentration and/or the cobalt ion concentration over time drop(s) below a prescribed limit value, the temperature of the aqueous nitric acid is increased during the treatment.
A rotatable stage for an analytical apparatus, the rotatable stage comprising: a stator; a heat exchanger in thermal connection with the stator; a rotor; and a thermally conductive bearing comprising a coiled spring; wherein the bearing is located between the stator and the rotor, and wherein the bearing is configured to provide multiple points of contact between the bearing and the stator and multiple points of contact between the bearing and the rotor, so that the bearing provides a thermal connection between the stator and rotor. a stator; a heat exchanger in thermal connection with the stator; a rotor; and a thermally conductive bearing comprising a coiled spring; wherein the bearing is located between the stator and the rotor, and wherein the bearing is configured to provide multiple points of contact between the bearing and the stator and multiple points of contact between the bearing and the rotor, so that the bearing provides a thermal connection between the stator and rotor.
A system for managing irradiation targets and instrumentation access to a nuclear reactor, the system comprising: a nuclear reactor, a penetration pathway connecting an origin point outside an access barrier of the nuclear reactor to an instrumentation tube extending into the nuclear reactor inside the access barrier, wherein the penetration pathway is traversable by at least one irradiation target and the instrumentation to the instrumentation tube, wherein the penetration pathway includes, one of at least one instrumentation path and at least one irradiation target path distinct from the instrumentation path, and at least one shared path; and characterised by a selector inside the access barrier, the selector being configured to connect only one of the instrumentation path and the irradiation target path to the shared path so as to form the penetration pathway. a nuclear reactor, a penetration pathway connecting an origin point outside an access barrier of the nuclear reactor to an instrumentation tube extending into the nuclear reactor inside the access barrier, wherein the penetration pathway is traversable by at least one irradiation target and the instrumentation to the instrumentation tube, wherein the penetration pathway includes, one of at least one instrumentation path and at least one irradiation target path distinct from the instrumentation path, and at least one shared path; and characterised by a selector inside the access barrier, the selector being configured to connect only one of the instrumentation path and the irradiation target path to the shared path so as to form the penetration pathway.
A compound represented by a formula: wherein: D is t-butyl; A is C 1-8 alkyl; * is H; * is H; R 1 is Cl, Br, CN, OCH 3, or CF 3; R 2 is H, F, or -CH 2 OH; R 3 is H, F, Cl, Br, or I; and R 4 is H, -CH 3, or -CF 3. D is t-butyl; A is C 1-8 alkyl; * is H; * is H; R 1 is Cl, Br, CN, OCH 3, or CF 3; R 2 is H, F, or -CH 2 OH; R 3 is H, F, Cl, Br, or I; and R 4 is H, -CH 3, or -CF 3.
A multi-layer ballistic woven fabric, comprising: a. an upper woven layer having upper warp yarns and upper weft yarns that are interwoven together; b. a lower woven layer having lower warp yarns and lower weft yarns that are interwoven together; and c. a plurality of securing yarns, each securing yarn interwoven with at least some of the upper yarns (12,14) and some of the lower yarns (13,15) so as to secure the upper and lower woven layers (11,13) together; d. wherein the multi-layer ballistic woven fabric is formed by interweaving the securing yarns with the warp yarns (12,14) and weft yarns (15,17) as the upper woven layer and lower woven layer are made; and e. wherein at least some of the upper yarns (12,14) and lower yarns (13,15) are offset from each other so as to overlap by between 10% and 95%. a. an upper woven layer having upper warp yarns and upper weft yarns that are interwoven together; b. a lower woven layer having lower warp yarns and lower weft yarns that are interwoven together; and c. a plurality of securing yarns, each securing yarn interwoven with at least some of the upper yarns (12,14) and some of the lower yarns (13,15) so as to secure the upper and lower woven layers (11,13) together; d. wherein the multi-layer ballistic woven fabric is formed by interweaving the securing yarns with the warp yarns (12,14) and weft yarns (15,17) as the upper woven layer and lower woven layer are made; and e. wherein at least some of the upper yarns (12,14) and lower yarns (13,15) are offset from each other so as to overlap by between 10% and 95%.
A method of manufacturing a tube having a hollow interior for housing an axle shaft, which transmits rotational motion from a prime mover to a wheel of a vehicle, with the tube formed in a machine having a fixed base and a press structure movable toward the fixed base, a first die assembly coupled to the fixed base, a second die assembly coupled to the fixed base, a first mandrel coupled to the press structure, a second mandrel coupled to the press structure and spaced from the first mandrel, a third die assembly coupled to the fixed base, and a third mandrel coupled to the press structure and spaced from the first and second mandrels, said method comprising the steps of: placing a billet into a cavity of the first die assembly; pressing the billet into the cavity of the first die assembly with the first mandrel coupled to the press structure to form a bore at one end of the billet thereby producing a pre-formed billet; moving the pre-formed billet from the cavity of the first die assembly to a cavity of the second die assembly; pressing the pre-formed billet into the cavity of the second die assembly with the second mandrel coupled to the press structure to elongate the pre-formed billet and form a hollow interior therein thereby producing an extruded tube; moving the extruded tube from the cavity of the second die assembly to a cavity of the third die assembly; and pressing the extruded tube into the cavity of the third die assembly with the third mandrel coupled to the press structure to elongate the extruded tube and decrease a thickness of a wall of the extruded tube thereby producing a drawn tube; wherein the thickness of the wall of the drawn tube is of from about 3 to about 18 millimeters and the drawn tube has a yield strength of at least 600 MPa. placing a billet into a cavity of the first die assembly; pressing the billet into the cavity of the first die assembly with the first mandrel coupled to the press structure to form a bore at one end of the billet thereby producing a pre-formed billet; moving the pre-formed billet from the cavity of the first die assembly to a cavity of the second die assembly; pressing the pre-formed billet into the cavity of the second die assembly with the second mandrel coupled to the press structure to elongate the pre-formed billet and form a hollow interior therein thereby producing an extruded tube; moving the extruded tube from the cavity of the second die assembly to a cavity of the third die assembly; and pressing the extruded tube into the cavity of the third die assembly with the third mandrel coupled to the press structure to elongate the extruded tube and decrease a thickness of a wall of the extruded tube thereby producing a drawn tube; wherein the thickness of the wall of the drawn tube is of from about 3 to about 18 millimeters and the drawn tube has a yield strength of at least 600 MPa.
A method for extracting nucleic acids from a biological sample comprising: (a) providing a biological sample; (b) contacting the biological sample with a capture surface under conditions sufficient to retain the microvesicle fraction on or in the capture surface, wherein the capture surface comprises three membranes that are positively charged and functionalized with quaternary ammonium R-CH 2 -N + (CH 3) 3, wherein the three membranes are directly adjacent to one another; either (c 1) lysing the microvesicle fraction while the microvesicles are on or in the capture surface; or (c 2) eluting the microvesicles from the capture surface to obtain a microvesicle fraction; and (d) extracting the nucleic acids from the microvesicle fraction. (a) providing a biological sample; (b) contacting the biological sample with a capture surface under conditions sufficient to retain the microvesicle fraction on or in the capture surface, wherein the capture surface comprises three membranes that are positively charged and functionalized with quaternary ammonium R-CH 2 -N + (CH 3) 3, wherein the three membranes are directly adjacent to one another; either (c 1) lysing the microvesicle fraction while the microvesicles are on or in the capture surface; or (c 2) eluting the microvesicles from the capture surface to obtain a microvesicle fraction; and (d) extracting the nucleic acids from the microvesicle fraction.
Process for manufacturing an alkaline-based hybrid supercapacitor comprising a step a) of forming a negative electrode A from a negative electrode material B originating from a used alkali-ion battery, implying that a passivation layer is already present at the surface of the negative electrode and having lost at least some of its initial capacity, the process not including any step of forming a passivation layer on the surface of the negative electrode A.
An engine device characterized in that it comprises an oil pan made of plastic material having a hollow shape containing lubricating oil delimited by a bottom wall, several side walls and upper flanges, the oil pan having at least one exchanger surface that comprises oil circulation means and cooling liquid circulation means, and a heat exchanger in which oil and a cooling liquid circulate, comprising a series of plates characterized in that the series of plates, which are welded in pairs and welded onto the exchanger surface is made of a plastic material.
Device for driving at least one first LED configured to generate a first radiation having a first spectrum, comprising a first feed-forward driver adapted to be coupled to the at least one first LED and configured to controllably vary a first intensity of the first radiation, wherein a desired intensity for the first intensity includes at least a first range and a second range, the first feed-forward driver comprising: • at least one energy transfer element to store input energy derived from a power source (210,212) and to provide output energy to said at least one first LED, the at least one energy transfer element including one of a tapped inductor and a transformer having a non-unity turns ratio; • at least one switch coupled to the at least one energy transfer element to control at least the input energy stored to the at least one energy transfer element; • at least one controller configured to receive at least one control signal representing said first intensity, the driving device being characterized in that the controller is further adapted to output at least a first driver signal to control said at least one switch based on monitoring at least one parameter relating to the power source (210,212), wherein the at least one controller is configured to control only one of the frequency and the duty cycle of the first driver signal in the first range, and to control both of the frequency and the duty cycle of the first driver signal in the second range. • at least one energy transfer element to store input energy derived from a power source (210,212) and to provide output energy to said at least one first LED, the at least one energy transfer element including one of a tapped inductor and a transformer having a non-unity turns ratio; • at least one switch coupled to the at least one energy transfer element to control at least the input energy stored to the at least one energy transfer element; • at least one controller configured to receive at least one control signal representing said first intensity, the driving device being characterized in that the controller is further adapted to output at least a first driver signal to control said at least one switch based on monitoring at least one parameter relating to the power source (210,212), wherein the at least one controller is configured to control only one of the frequency and the duty cycle of the first driver signal in the first range, and to control both of the frequency and the duty cycle of the first driver signal in the second range.
A medical imaging apparatus for inspecting a volume of a subject, comprising: - an image interface for receiving a plurality of ultrasound image data acquired by an ultrasound probe and medical image data of the subject, - a position determining unit for receiving a position data of the ultrasound probe, - an image processing unit configured to determine a motion model of the volume based on the position of the ultrasound probe and a variation of a repetitive temporal pattern of common anatomical features throughout the plurality of ultrasound image data, wherein the motion model includes a cranio-caudal translation model having a respiration function B(t) and is determined based on the plurality of ultrasound image data acquired during at least one respiratory period of the respiration function B(t), wherein the image processing unit is further configured to align the ultrasound image data and the medical image data based on the motion model, wherein the image processing unit comprises - a fusion unit for processing the ultrasound image data and the medical image data to fuse the ultrasound image data and the medical image data based on the alignment to combined image data. - an image interface for receiving a plurality of ultrasound image data acquired by an ultrasound probe and medical image data of the subject, - a position determining unit for receiving a position data of the ultrasound probe, - an image processing unit configured to determine a motion model of the volume based on the position of the ultrasound probe and a variation of a repetitive temporal pattern of common anatomical features throughout the plurality of ultrasound image data, wherein the motion model includes a cranio-caudal translation model having a respiration function B(t) and is determined based on the plurality of ultrasound image data acquired during at least one respiratory period of the respiration function B(t), wherein the image processing unit is further configured to align the ultrasound image data and the medical image data based on the motion model, wherein the image processing unit comprises - a fusion unit for processing the ultrasound image data and the medical image data to fuse the ultrasound image data and the medical image data based on the alignment to combined image data.
Permanent magnet module (101, 102) for a permanent magnet machine, the permanent magnet module (101, 102) comprising at least a permanent magnet and a baseplate (301, 302), the baseplate (301, 302) including at least a first portion and a second portion (501, 502), the first portion providing an interface for attaching the permanent magnet module (101, 102) to a rotor body of a permanent magnet machine and the second portion (501, 502) being attached to the first portion on a first side and to the at least one permanent magnet on a second side, opposite to the first side, wherein the second portion (501, 502) has a structure or comprises a material for reducing eddy current losses, characterized in that the permanent magnet module (101, 102) comprises a cover for at least partially covering the permanent magnet, the cover being attached to at least the first portion of the baseplate (301, 302), wherein the cover and the first portion of the baseplate (301, 302) comprise a stainless steel.
A method for controlling a control target device included in various home appliances and a speech recognition server system interacting with the home appliances, comprising: receiving at the speech recognition server system speech data of a user from a device included in the home appliances, and converting the received speech data into text data; extracting the control target device and a control command from the converted text data; determining whether the control target device is identical to the device; determining whether a first group to which the control target device belongs is identical to a second group to which the device belongs when the control target device is different from the device; controlling an operation of the control target device based on the control command when the first group is different from the second group; and further comprising controlling the device to ignore the control command if the control target device is different from the device and the first group is identical to the second group. receiving at the speech recognition server system speech data of a user from a device included in the home appliances, and converting the received speech data into text data; extracting the control target device and a control command from the converted text data; determining whether the control target device is identical to the device; determining whether a first group to which the control target device belongs is identical to a second group to which the device belongs when the control target device is different from the device; controlling an operation of the control target device based on the control command when the first group is different from the second group; and further comprising controlling the device to ignore the control command if the control target device is different from the device and the first group is identical to the second group.