mhurhangee/ep-ind-claims huggingface dataset:
A ventilation assessment apparatus comprising: a controller having at least one processor to access data representing a measured flow of breathable gas attributable to respiration of a patient, the controller being further configured to (a) derive measures of ventilation from the data representing the measured flow of breathable gas, and (b) determine a histogram based on the measures of ventilation, and characterized by the controller being further configured to (c) evaluate the histogram in the processor to detect an occurrence of hypoventilation or hyperventilation, and (d) output, based on the evaluation, an indication of the occurrence of hypoventilation or hyperventilation and/or change, based on the evaluation, a pressure control parameter or a treatment protocol of a respiratory treatment apparatus, wherein evaluating the histogram comprises determining one or more of the following features: a number of peaks of the histogram, a gradient between two largest peaks of the histogram, a gradient between a largest peak and a center point of the histogram, a gradient between a second largest peak and a center point of the histogram, an area between two largest peaks of the histogram, an area between a largest peak and a center point of the histogram, an area between a second largest peak and a center point of the histogram, a shape feature of the histogram, a kurtosis value based on the histogram, and a skewness value based on the histogram. (a) derive measures of ventilation from the data representing the measured flow of breathable gas, and (b) determine a histogram based on the measures of ventilation, and characterized by the controller being further configured to (c) evaluate the histogram in the processor to detect an occurrence of hypoventilation or hyperventilation, and (d) output, based on the evaluation, an indication of the occurrence of hypoventilation or hyperventilation and/or change, based on the evaluation, a pressure control parameter or a treatment protocol of a respiratory treatment apparatus,
A coating composition comprising: a) a sulfur-containing, epoxy functional polyol; and b) an isocyanate curing agent, wherein the sulfur-containing, epoxy functional polyol comprises a reaction product of reactants comprising a mercaptan-terminated polythioether and an epoxy resin, the mercaptan terminated polythioether comprises mercaptan-terminated polythioethers having an average mercaptan functionality ranging from 2.05 to 3 or a compound represented by Formula 1: Formula 1 HS-R 1 -[-S-(CH 2) 2 -O-[-R 2 -O-] m -(CH 2) 2 -S-R 1 -] n -SH which is prepared by reacting (n +1) moles of a dithiol represented by Formula 2 HS-R 1 -SH Formula 2 or a mixture of at least two different compounds having the Formula 2 with n moles of a divinyl ether represented by Formula 3 CH 2 =CH-O-[-R 2 -O-] m -CH=CH 2 Formula 3 or a mixture of at least two different compounds having the Formula 3 in the presence of a catalyst, wherein R 1 denotes a C 2-6 n-alkylene, C 3-6 branched alkylene, C 6-8 cycloalkylene or C 6-10 alkylcycloalkylene group, -[(-CH 2 -) p -X-] q -(-CH 2 -) r - in which at least one -CH 2 - unit is substituted with a methyl group, -[(-CH 2 -) p -O-] q -(-CH 2 -) r -, or -[(-CH 2 -) p -S-] q -(-CH 2 -) r -, R 2 denotes a methylene, C 2-6 n-alkylene, C 2-6 branched alkylene, C 6-8 cycloalkylene or C 6-10 alkylcycloalkylene group, or -[(-CH 2 -) p -X-] q -(-CH 2 -) r - in which at least one -CH 2 - may be substituted with a methyl group, X is one selected from the group consisting of O, S and -NR 6 -, R 6 denotes H or methyl, m is a rational number from 0 to 10, n is an integer from 1 to 60, p is an integer from 2 to 6, q is an integer from 1 to 5, and r is an integer from 2 to 10. a) a sulfur-containing, epoxy functional polyol; and b) an isocyanate curing agent, R 1 denotes a C 2-6 n-alkylene, C 3-6 branched alkylene, C 6-8 cycloalkylene or C 6-10 alkylcycloalkylene group, -[(-CH 2 -) p -X-] q -(-CH 2 -) r - in which at least one -CH 2 - unit is substituted with a methyl group, -[(-CH 2 -) p -O-] q -(-CH 2 -) r -, or -[(-CH 2 -) p -S-] q -(-CH 2 -) r -, R 2 denotes a methylene, C 2-6 n-alkylene, C 2-6 branched alkylene, C 6-8 cycloalkylene or C 6-10 alkylcycloalkylene group, or -[(-CH 2 -) p -X-] q -(-CH 2 -) r - in which at least one -CH 2 - may be substituted with a methyl group, X is one selected from the group consisting of O, S and -NR 6 -, R 6 denotes H or methyl, m is a rational number from 0 to 10, n is an integer from 1 to 60, p is an integer from 2 to 6, q is an integer from 1 to 5, and r is an integer from 2 to 10.
Under liquid fabric transportation mechanism suitable for a continuous open width washing range, wherein the under liquid fabric transportation mechanism includes a driven rotor being installed inside a driven drum in a washing compartment; the driven drum includes an external circumferential drum surface and support side plates and bushings on both ends, the bushings can be rotated on rotor shafts installed on the washing compartment; the external circumferential drum surface is punched with perforations on its surface for passing through of circulating liquid; the driven rotor has the rotor shafts which are mounted on rotor side plates of the driven rotor, both rotor shafts are installed with mechanical seals, one of the rotor shafts is extended outside the washing compartment for driving motor installation for driving the driven rotor; the driven rotor is inside and coaxial with the perforated external circumferential drum surface wherein the driven rotor comprises a rotor body, having paddling profiles on its circumference causing during rotation of the driven rotor a spinning of liquid inside the drum and relatively steady liquid outside the circumferential drum surface for creating, as per Bernoulli's principle, a pressure difference between the volumes inside and outside the perforated external circumferential drum surface thereby creating a lower pressure inside the perforated external circumferential drum surface, for increasing by suction the surface friction between the lower part of the perforated external circumferential drum surface and the fabric.
A method, comprising: • providing a representative inhale-exhale cycle breathing volume (403, 500, 601, 800) over time profile; • measuring a subject's: - inhale-exhale cycle breathing volume, and - at least one of: oxygen consumption and carbon dioxide production, over time over one or more inhale-exhale cycles; • presenting in real-time a current measured breathing volume over time of the subject relative to the representative inhale-exhale cycle breathing volume over time profile and relative to a correspondence criterion, wherein the correspondence criterion comprises an allowed deviation (404,501,600,700) from the representative inhale-exhale cycle breathing volume over time profile; • obtaining data relating to oxygen consumption and/or carbon dioxide production that was measured during a discrete inhale-exhale cycle meeting the correspondence criterion (501, 600, 801), wherein meeting the correspondence criterion comprises having the current measured breathing volume over time of the subject within the allowed deviation; and • processing the data relating to oxygen consumption and/or carbon dioxide production to determine a metabolic property in the subject. • providing a representative inhale-exhale cycle breathing volume (403, 500, 601, 800) over time profile; • measuring a subject's: - inhale-exhale cycle breathing volume, and - at least one of: oxygen consumption and carbon dioxide production, over time over one or more inhale-exhale cycles; - inhale-exhale cycle breathing volume, and - at least one of: oxygen consumption and carbon dioxide production, over time over one or more inhale-exhale cycles; • presenting in real-time a current measured breathing volume over time of the subject relative to the representative inhale-exhale cycle breathing volume over time profile and relative to a correspondence criterion, wherein the correspondence criterion comprises an allowed deviation (404,501,600,700) from the representative inhale-exhale cycle breathing volume over time profile; • obtaining data relating to oxygen consumption and/or carbon dioxide production that was measured during a discrete inhale-exhale cycle meeting the correspondence criterion (501, 600, 801), wherein meeting the correspondence criterion comprises having the current measured breathing volume over time of the subject within the allowed deviation; and • processing the data relating to oxygen consumption and/or carbon dioxide production to determine a metabolic property in the subject.
A vacuum insulating element comprising: a first plate member defining at least a portion of a wall for a first space; a second plate member defining at least a portion of a wall for a second space having a temperature different from that of the first space; a sealing part sealing the first plate member and the second plate member to provide a third space that has a temperature between a temperature of the first space and a temperature of the second space and is a vacuum space; a supporting unit maintaining the third space; a conductive resistance sheet reducing a heat transfer amount between the first plate member and the second plate member; a heat diffusion block provided in the third space; a thermoelectric module coming into contact with the heat diffusion block to perform heat exchange and provided in the third space; and a heat sink, which is exchanging heat with the thermoelectric module and which is provided in the second space. a first plate member defining at least a portion of a wall for a first space; a second plate member defining at least a portion of a wall for a second space having a temperature different from that of the first space; a sealing part sealing the first plate member and the second plate member to provide a third space that has a temperature between a temperature of the first space and a temperature of the second space and is a vacuum space; a supporting unit maintaining the third space; a conductive resistance sheet reducing a heat transfer amount between the first plate member and the second plate member; a heat diffusion block provided in the third space; a thermoelectric module coming into contact with the heat diffusion block to perform heat exchange and provided in the third space; and a heat sink, which is exchanging heat with the thermoelectric module and which is provided in the second space.
A bicycle wheel made of a fiber composite material, comprising a rim (1, 16), a plurality of spokes (2, 19) and a center (3, 25), wherein the spokes (2, 19) each have a first spoke section and a second spoke section (2.1; 2.2, 2.1', 2.2', 29, 32, 34, 36) extending between the rim (1, 16) and the center (3, 25) in each case, characterized in that the first spoke section and the second spoke section (2.1; 2.2, 2.1', 2.2', 29, 32, 34, 36) each have a curved shape in a laminated state and each extend substantially straight in a pretensioned state of the two spoke sections (2.1; 2.2, 2.1', 2.2', 29, 32, 34, 36).
A flange extender for extending the flange of an ostomy bag which consists of a film and adhesive wherein the film has a thickness of 5μm to 200μm and is selected from a polyurethane film, polyvinylchloride film, polyester film and vinyl film, and has a body facing surface and an ostomy bag facing surface, and the adhesive has a thickness of 0.2 μm to 2 μm and is applied to at least one of these surfaces.
Method for detecting a marker affixed to a surface of an object, characterized in that it comprises the following operations: a) acquisition of a photographic image of a scene containing at least one marker; b) reading of the photographic image and detection of the marker in said scene, this detection of the marker comprising: c) an extraction of outlines in the photographic image, and d) a detection, from these outlines, of an outline of positioning of the marker corresponding to a set of coplanar cones of predetermined form, e) locating of the outline of positioning of the marker comprising: f) a modelling of an image of the coplanar cones in a matrix form in which each cone is represented by a third order symmetrical matrix, g) an analysis of these matrices to determine a correction of perspective of the photographic image, h) a detection, in the perspective-corrected photographic image, of a foolproof element associated graphically with the outline of positioning of the marker and rotational correction of the photographic image, i) detection, in the perspective- and rotationally-corrected photographic image, of coded data associated graphically with the outline of positioning of the marker and decoding of these coded data. a) acquisition of a photographic image of a scene containing at least one marker; b) reading of the photographic image and detection of the marker in said scene, this detection of the marker comprising: c) an extraction of outlines in the photographic image, and d) a detection, from these outlines, of an outline of positioning of the marker corresponding to a set of coplanar cones of predetermined form, c) an extraction of outlines in the photographic image, and d) a detection, from these outlines, of an outline of positioning of the marker corresponding to a set of coplanar cones of predetermined form, e) locating of the outline of positioning of the marker comprising: f) a modelling of an image of the coplanar cones in a matrix form in which each cone is represented by a third order symmetrical matrix, g) an analysis of these matrices to determine a correction of perspective of the photographic image, h) a detection, in the perspective-corrected photographic image, of a foolproof element associated graphically with the outline of positioning of the marker and rotational correction of the photographic image, f) a modelling of an image of the coplanar cones in a matrix form in which each cone is represented by a third order symmetrical matrix, g) an analysis of these matrices to determine a correction of perspective of the photographic image, h) a detection, in the perspective-corrected photographic image, of a foolproof element associated graphically with the outline of positioning of the marker and rotational correction of the photographic image, i) detection, in the perspective- and rotationally-corrected photographic image, of coded data associated graphically with the outline of positioning of the marker and decoding of these coded data.
A shifter apparatus for operating a transmission controller of a vehicle, comprising: a selection knob rotatable between a plurality of angular positions for selecting an operating mode of the transmission controller; a swing arm configured to engage the selection knob in at least one of the plurality of angular positions; and a motor operably coupled with the swing arm and configured to pivot the swing arm between a locked position that prevents rotation of the selection knob and an unlocked position that allows rotation of the selection knob, the shifter apparatus characterized in that the shifter apparatus further comprises: a drive gear coupled with the swing arm, wherein the swing arm is further pivotal to a knob engagement position that operably engages the drive gear between the motor and the selection knob, thereby allowing the motor to rotate the selection knob. a selection knob rotatable between a plurality of angular positions for selecting an operating mode of the transmission controller; a swing arm configured to engage the selection knob in at least one of the plurality of angular positions; and a motor operably coupled with the swing arm and configured to pivot the swing arm between a locked position that prevents rotation of the selection knob and an unlocked position that allows rotation of the selection knob, the shifter apparatus characterized in that the shifter apparatus further comprises: a drive gear coupled with the swing arm, wherein the swing arm is further pivotal to a knob engagement position that operably engages the drive gear between the motor and the selection knob, thereby allowing the motor to rotate the selection knob.
A temperature detection ink, comprising: a temperature detection material (2, 4); and a solvent, wherein the temperature detection material (2, 4) has a structure in which a thermosensitive material containing a leuco dye, a color-developing agent, and a decolorant is contained in a microcapsule, or a structure in which a phase containing the thermosensitive material is phase-separated from a matrix material, the thermosensitive material is solidified while being decolored by cooling from a molten state to a glass transition temperature (Tg) or lower at a predetermined rate or higher, the thermosensitive material has a glass transition temperature (Tg) of -20 to 60°C, characterized in that: the thermosensitive material has a melting point (Td) that is 60 to 250 ° C and lower than the boiling point of the solvent. a temperature detection material (2, 4); and a solvent, wherein the temperature detection material (2, 4) has a structure in which a thermosensitive material containing a leuco dye, a color-developing agent, and a decolorant is contained in a microcapsule, or a structure in which a phase containing the thermosensitive material is phase-separated from a matrix material, the thermosensitive material is solidified while being decolored by cooling from a molten state to a glass transition temperature (Tg) or lower at a predetermined rate or higher, the thermosensitive material has a glass transition temperature (Tg) of -20 to 60°C, characterized in that: the thermosensitive material has a melting point (Td) that is 60 to 250 ° C and lower than the boiling point of the solvent.
A system comprising: a ground station configured to: receive a set of beacon signals in calibration beams from a spacecraft; make a comparison of the set of beacon signals by determining differences between power levels of respective calibration beams, the power levels being compared to generate a raw vector error representing the differences between the power levels; generate a pointing error estimate for the spacecraft based on the raw vector error determined with the comparison; and provide updated beamforming coefficients to the spacecraft based on the pointing error estimate. receive a set of beacon signals in calibration beams from a spacecraft; make a comparison of the set of beacon signals by determining differences between power levels of respective calibration beams, the power levels being compared to generate a raw vector error representing the differences between the power levels; generate a pointing error estimate for the spacecraft based on the raw vector error determined with the comparison; and provide updated beamforming coefficients to the spacecraft based on the pointing error estimate.
A zone selective interlocking device, comprising a first port, a second port, an input bus (BUS_I), an output bus (BUS_O) and a query signal receiving branch (QSIU1, QSIU2), the two ends of the input bus (BUS_I) and output bus (BUS_O) being connected to the first port and second port, respectively, the first port and second port each being capable of switching between two states, namely being connected to the input bus (BUS_I) and being connected to the output bus (BUS_O), and the zone selectivity interlocking device being capable of operating in a first mode; in the first mode, the query signal receiving branch (QSIU1, QSIU2) is turned on, and within a preset timeslot, a link fault query signal is permitted to be inputted to the query signal receiving branch (QSIU1, QSIU2) through one port, while a link fault query signal is prevented from being inputted to the query signal receiving branch (QSIU1, QSIU2) through another port, wherein the port is one of the first port and the second port; and based on whether a link fault query signal is received within the preset timeslot, a judgment is made on whether a fault has occurred in a communication link connected to a corresponding port.
A method in a portable data carrier with a memory which can be accessed from outside the data carrier in reading fashion by means of conventional read commands, wherein an additional functionality (362; 364) is called up in the data carrier in response to a received conventional read command; characterized in that the additional functionality (362; 364) is specified by at least one further received conventional read command accessing a different predetermined address, by input data or parameter data.
An image processing apparatus for processing a plurality of cross-sectional OCT images obtained by moving an imaging core inside a catheter in an axial direction while rotating the imaging core, the apparatus comprising: storage means for storing data relating to the cross-sectional images in association with position information in the axial direction when each of the cross-sectional images is acquired; characterised in that the apparatus further comprises extraction means for extracting a first cross-sectional image in which a disappearance section enabling determination that there is a disappeared portion of an external elastic membrane included in a vascular tomographic image starts, and a second cross-sectional image in which the disappearance section ends, in the plurality of cross-sectional images; and calculation means for acquiring the position information in the axial direction of the first cross-sectional image and the second cross-sectional image from the storage means, and for calculating an ablation range influenced by ablation at a position associated with the disappearance section, based on a difference in the acquired position information in the axial direction. storage means for storing data relating to the cross-sectional images in association with position information in the axial direction when each of the cross-sectional images is acquired; characterised in that the apparatus further comprises extraction means for extracting a first cross-sectional image in which a disappearance section enabling determination that there is a disappeared portion of an external elastic membrane included in a vascular tomographic image starts, and a second cross-sectional image in which the disappearance section ends, in the plurality of cross-sectional images; and calculation means for acquiring the position information in the axial direction of the first cross-sectional image and the second cross-sectional image from the storage means, and for calculating an ablation range influenced by ablation at a position associated with the disappearance section, based on a difference in the acquired position information in the axial direction.