mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: generating a backup of data for a point in time based on a bitmap, wherein each entry in the bitmap corresponds to a segment of the data and each marked bit in the bitmap corresponds to a segment that has changed in the data, wherein each segment has a fixed size by: performing a synchronization process by reading segments of the data corresponding to the marked bits; and during the synchronization process, generating a delta journal, wherein the delta journal includes chunks corresponding to data overwritten by writes applied to segments that are yet to be synchronized by the synchronization process; loading metadata associated with the delta journal stored in cloud storage, wherein the delta journal and segments are associated with the backup that corresponds to the point in time; processing the delta journal to create new delta journals that are based on offsets and segment indexes of the chunks included in the delta journal (304, 306); grouping the new delta journals based on the segment indexes; overwriting the segments based on the new delta journals such that first chunks included in the new delta journals and associated with a particular segment are applied at the same time. generating a backup of data for a point in time based on a bitmap, wherein each entry in the bitmap corresponds to a segment of the data and each marked bit in the bitmap corresponds to a segment that has changed in the data, wherein each segment has a fixed size by: performing a synchronization process by reading segments of the data corresponding to the marked bits; and during the synchronization process, generating a delta journal, wherein the delta journal includes chunks corresponding to data overwritten by writes applied to segments that are yet to be synchronized by the synchronization process; performing a synchronization process by reading segments of the data corresponding to the marked bits; and during the synchronization process, generating a delta journal, wherein the delta journal includes chunks corresponding to data overwritten by writes applied to segments that are yet to be synchronized by the synchronization process; loading metadata associated with the delta journal stored in cloud storage, wherein the delta journal and segments are associated with the backup that corresponds to the point in time; processing the delta journal to create new delta journals that are based on offsets and segment indexes of the chunks included in the delta journal (304, 306); grouping the new delta journals based on the segment indexes; overwriting the segments based on the new delta journals such that first chunks included in the new delta journals and associated with a particular segment are applied at the same time.
A method of forging a metallic material workpiece to initiate microstructure refinement, the method comprising: open die press forging the workpiece at a forging temperature in a first forging direction up to a reduction ductility limit of the metallic material; repeating open die press forging the workpiece in the first forging direction up to the reduction ductility limit one or more times at the forging temperature until a total amount of strain imparted in the first forging direction is sufficient to initiate microstructure refinement; rotating the workpiece a desired degree of rotation; open die press forging the workpiece at the forging temperature in a second forging direction up to the reduction ductility limit of the metallic material; repeating open die press forging the workpiece in the second forging direction up to the reduction ductility limit one or more times at the forging temperature until a total amount of strain imparted in the second forging direction is sufficient to initiate microstructure refinement; and repeating the rotating step, the open die press forging step, and the repeating open die press forging step in a third and, optionally, one or more additional forging directions until a total amount of strain that is sufficient to initiate microstructure refinement is imparted in an entire volume of the workpiece, wherein the workpiece is not rotated until a total amount of strain that is sufficient to initiate microstructure refinement is imparted in the third direction and any one or more additional directions. open die press forging the workpiece at a forging temperature in a first forging direction up to a reduction ductility limit of the metallic material; repeating open die press forging the workpiece in the first forging direction up to the reduction ductility limit one or more times at the forging temperature until a total amount of strain imparted in the first forging direction is sufficient to initiate microstructure refinement; rotating the workpiece a desired degree of rotation; open die press forging the workpiece at the forging temperature in a second forging direction up to the reduction ductility limit of the metallic material; repeating open die press forging the workpiece in the second forging direction up to the reduction ductility limit one or more times at the forging temperature until a total amount of strain imparted in the second forging direction is sufficient to initiate microstructure refinement; and repeating the rotating step, the open die press forging step, and the repeating open die press forging step in a third and, optionally, one or more additional forging directions until a total amount of strain that is sufficient to initiate microstructure refinement is imparted in an entire volume of the workpiece, wherein the workpiece is not rotated until a total amount of strain that is sufficient to initiate microstructure refinement is imparted in the third direction and any one or more additional directions.
A hood comprising an air inlet in fluidic connection with a chimney, and air circulating means for extracting fumes from said air inlet and directing them into said chimney, and further comprising one filter adapted to filter said air, said filter comprising: a first flat filter element adapted to face towards an air inlet of said hood, a plurality of second flat filter elements (3302, 3303, 3304, 3305) arranged along the perimeter of said first flat filter element to form a side wall, said side wall being adapted to extend externally to said air inlet, and a third non-filtering closing element connected to said side wall to form a box-like structure, characterized in that said filter is a central filter, and in that: - said second flat filter elements (3302, 3303, 3304, 3305) are adapted to extend partly external and partly internal to said hood, and - said third non-filtering closing element is external to the hood; and in that said hood further comprises: - one or more side filters (3501, 3502) arranged at the sides of central filter, said one or more side filters comprising a first filtering surface and a second non-filtering surface, said first and second surfaces facing towards the outer bottom part of the hood and having oppositely oriented inclinations, said first filtering surface facing towards the outside of the hood, and said second non-filtering surface facing towards the inside of the hood and towards said central filter. - said second flat filter elements (3302, 3303, 3304, 3305) are adapted to extend partly external and partly internal to said hood, and - said third non-filtering closing element is external to the hood; and in that said hood further comprises: - one or more side filters (3501, 3502) arranged at the sides of central filter, said one or more side filters comprising a first filtering surface and a second non-filtering surface, said first and second surfaces facing towards the outer bottom part of the hood and having oppositely oriented inclinations, said first filtering surface facing towards the outside of the hood, and said second non-filtering surface facing towards the inside of the hood and towards said central filter. - one or more side filters (3501, 3502) arranged at the sides of central filter, said one or more side filters comprising a first filtering surface and a second non-filtering surface, said first and second surfaces facing towards the outer bottom part of the hood and having oppositely oriented inclinations, said first filtering surface facing towards the outside of the hood, and said second non-filtering surface facing towards the inside of the hood and towards said central filter.
An apparel system for an upper torso of a wearer comprising: a first layer having a front side opposite a back side, wherein the front side comprises a pocket having a pocket space and a pocket opening in communication with the pocket space; and a second layer that covers at least a portion of the first layer, the second layer having a front side opposite a back side, wherein the second layer is affixed to the first layer at a location inside the pocket, wherein the location inside the pocket where the second layer is affixed to the first layer corresponds to a front edge of the pocket opening, and characterized in that the second layer further comprises a flap that extends downward from the second layer so that the flap is positioned adjacent and external to the pocket opening. a first layer having a front side opposite a back side, wherein the front side comprises a pocket having a pocket space and a pocket opening in communication with the pocket space; and a second layer that covers at least a portion of the first layer, the second layer having a front side opposite a back side, wherein the second layer is affixed to the first layer at a location inside the pocket, wherein the location inside the pocket where the second layer is affixed to the first layer corresponds to a front edge of the pocket opening, and characterized in that the second layer further comprises a flap that extends downward from the second layer so that the flap is positioned adjacent and external to the pocket opening.
A method for operating an IVUS system that includes circuitry, an IVUS catheter (102, 402) and a translation mechanism, the IVUS catheter including a connector located at the proximal end of the IVUS catheter and a sheath with an anchor assembly, the connector being separate from the sheath and configured to provide an electrical and mechanical interface between the IVUS catheter and the translation mechanism, the method comprising: receiving a command to perform an IVUS task; measuring a first output from the circuitry corresponding to engagement between the anchor assembly of the IVUS catheter and an anchor port of the translation mechanism; determining, via the first output, if the anchor assembly of the IVUS catheter is anchored to the translation mechanism; placing the translation mechanism in a connected mode if the anchor assembly of the IVUS catheter is anchored to the translation mechanism or in a disconnected mode if the anchor assembly of the IVUS catheter is not anchored to the translation mechanism; and performing the IVUS task if the translation mechanism is in the connected mode but not if the translation mechanism is in the disconnected mode. receiving a command to perform an IVUS task; measuring a first output from the circuitry corresponding to engagement between the anchor assembly of the IVUS catheter and an anchor port of the translation mechanism; determining, via the first output, if the anchor assembly of the IVUS catheter is anchored to the translation mechanism; placing the translation mechanism in a connected mode if the anchor assembly of the IVUS catheter is anchored to the translation mechanism or in a disconnected mode if the anchor assembly of the IVUS catheter is not anchored to the translation mechanism; and performing the IVUS task if the translation mechanism is in the connected mode but not if the translation mechanism is in the disconnected mode.
Device for assessing the effectiveness of ventilation in a patient under respiratory assistance, designed to interface with a patient ventilation system comprising a flow-inflating bag or a self-inflating bag, the device comprising: - a bidirectional thermal mass sensor for measuring, in real time, the airflows during insufflation and during expiration, - an electronic unit connected to said sensor, the connection between the sensor and the electronic unit being made by a removable electromechanical connection, the electronic unit being configured to receive and process data relating to the airflows measured by the sensor, the electronic unit comprising: i. a user interface comprising a display device and data input means, ii. a data-processing centre, the data-processing centre functioning according to programmed algorithms for acquiring, processing and displaying data, for analysing the effectiveness of the ventilation in real time, and for managing alarms, and iii. a means for supplying electricity. - a bidirectional thermal mass sensor for measuring, in real time, the airflows during insufflation and during expiration, - an electronic unit connected to said sensor, the connection between the sensor and the electronic unit being made by a removable electromechanical connection, the electronic unit being configured to receive and process data relating to the airflows measured by the sensor, the electronic unit comprising: i. a user interface comprising a display device and data input means, ii. a data-processing centre, the data-processing centre functioning according to programmed algorithms for acquiring, processing and displaying data, for analysing the effectiveness of the ventilation in real time, and for managing alarms, and iii. a means for supplying electricity. i. a user interface comprising a display device and data input means, ii. a data-processing centre, the data-processing centre functioning according to programmed algorithms for acquiring, processing and displaying data, for analysing the effectiveness of the ventilation in real time, and for managing alarms, and iii. a means for supplying electricity.
A flexible thermoelectric module, comprising: a flexible substrate comprising a plurality of vias filled with an electrically conductive material, the flexible substrate having a first substrate surface and a second substrate surface opposing to the first substrate surface; a plurality of p-type thermoelectric elements and a plurality of n-type thermoelectric elements disposed on the first surface of the flexible substrate, at least part of the plurality of p-type and n-type thermoelectric elements electrically connected to the plurality of vias, wherein a p-type thermoelectric element is adjacent to a n-type thermoelectric element; a first set of connectors disposed on the second surface of the flexible substrate, wherein each of the first set of connectors electrically connects a pair of adjacent vias; and a second set of connectors printed directly on the plurality of p-type and n-type thermoelectric elements, wherein each of the second set of connectors electrically connects to a pair of adjacent p-type and n-type thermoelectric elements. a flexible substrate comprising a plurality of vias filled with an electrically conductive material, the flexible substrate having a first substrate surface and a second substrate surface opposing to the first substrate surface; a plurality of p-type thermoelectric elements and a plurality of n-type thermoelectric elements disposed on the first surface of the flexible substrate, at least part of the plurality of p-type and n-type thermoelectric elements electrically connected to the plurality of vias, wherein a p-type thermoelectric element is adjacent to a n-type thermoelectric element; a first set of connectors disposed on the second surface of the flexible substrate, wherein each of the first set of connectors electrically connects a pair of adjacent vias; and a second set of connectors printed directly on the plurality of p-type and n-type thermoelectric elements, wherein each of the second set of connectors electrically connects to a pair of adjacent p-type and n-type thermoelectric elements.
Radiator comprising a body and two tanks (204, 205) arranged on two opposing sides of said one body, said body comprising a plurality of tubes opening at each end into one of said tanks (204, 205), and spacers arranged on either side of each of said tubes, said radiator comprising an end plate at a first end of said body and extending substantially between said tanks (204, 205), said end plate having an essentially U-shaped cross-section with a base extending into two side wings, said base coming into contact with the spacer (203 1) situated at said first end, said end plate bearing a sealing gasket extending around said first end, characterized in that said wings extend along the sides of said spacer (203 1).
Magnetic inductive flowmeter for flow measurement of a flowing medium with a measuring line, with a magnetic field generator for generating an - in particular alternating - magnetic field permeating the measuring line at least partially perpendicular to a longitudinal axis of the measuring line, with at least two electrodes - in particular in contact with the medium - for tapping a measuring voltage induced in the flowing medium, wherein at least one supplementary magnetic field generator - in particular arranged outside of the measuring line - is provided for generating an - in particular alternating - supplementary magnetic field at least partially permeating the measuring line, wherein the supplementary magnetic field runs at least partially parallel to the longitudinal axis of the measuring line in the region of the measuring line in which the two electrodes are located, wherein the supplementary magnetic field is used for determining the measure to which the measuring line is filled with the medium, characterized in, that the two - in particular identically designed - electrodes are designed as strips, that the two electrodes are located opposite one another at essentially the same location along the longitudinal axis of the measuring line that each of the two electrodes has two end faces and that the flowmeter has electric measuring taps in this region that are designed such that a measuring signal of the induced measuring voltage can be respectively tapped from a pair of adjacent end faces during operation.
A constant mesh gearbox having a plurality of individually selectable forward speed ratios, the constant mesh gearbox comprises: a casing defining a plurality of parallel rotational axes, said axes comprising a co-axial input and output axis and two intermediate axes (12, 13); gear wheel pairs for driving between shaft members rotatable on said axes; an input shaft (21, 22) rotatable on said input axis, a first shaft rotatable on one of said intermediate axes, and a second shaft rotatable on another of said intermediate axes, said first and second shafts being directly connected by a first gear wheel train; a sleeve (85, 86) rotatable on said second shaft and adapted for rotational coupling therewith; an idler gear wheel (64, 82; 74, 81) rotatable on said first shaft that rotationally couples said sleeve (85, 86) with said input shaft (21, 22), said idler gear wheel (64, 82; 74, 81) comprising a first driving gear wheel (64, 74) associated with the input shaft (21, 22) and a first driven gear wheel (82, 81) in side-by-side relationship and associated with said sleeve (85, 86); and a gear wheel pair (91; 93, 92; 94) comprising a second driving gear wheel (93, 94) and a second driven gear wheel (91, 92), said gear wheel pair (91; 93, 92; 94) being for rotationally coupling said sleeve (85, 86) with said first shaft, and said gear wheel pair (91, 93; 92, 94) being adjacent to said first driving gear wheel (64, 74). a casing defining a plurality of parallel rotational axes, said axes comprising a co-axial input and output axis and two intermediate axes (12, 13); gear wheel pairs for driving between shaft members rotatable on said axes; an input shaft (21, 22) rotatable on said input axis, a first shaft rotatable on one of said intermediate axes, and a second shaft rotatable on another of said intermediate axes, said first and second shafts being directly connected by a first gear wheel train; a sleeve (85, 86) rotatable on said second shaft and adapted for rotational coupling therewith; an idler gear wheel (64, 82; 74, 81) rotatable on said first shaft that rotationally couples said sleeve (85, 86) with said input shaft (21, 22), said idler gear wheel (64, 82; 74, 81) comprising a first driving gear wheel (64, 74) associated with the input shaft (21, 22) and a first driven gear wheel (82, 81) in side-by-side relationship and associated with said sleeve (85, 86); and a gear wheel pair (91; 93, 92; 94) comprising a second driving gear wheel (93, 94) and a second driven gear wheel (91, 92), said gear wheel pair (91; 93, 92; 94) being for rotationally coupling said sleeve (85, 86) with said first shaft, and said gear wheel pair (91, 93; 92, 94) being adjacent to said first driving gear wheel (64, 74).
An outdoor unit for an air conditioner, the outdoor unit comprising: a casing including a blower chamber through which outdoor air passes; an outdoor heat exchanger that is mounted in the blower chamber and conducts a heat exchange with outdoor air; an outdoor fan (39, 39B) which is mounted in the blower chamber and is arranged to be driven such that outdoor air passes through the outdoor heat exchanger; a guide structure (56b, 56Ab, 56Bb, 56Cb, 56Db) provided downstream of the outdoor fan and changing the direction of a portion of air blown by the outdoor fan; and a humidifying unit that includes a moisture absorption section for absorbing moisture from outdoor air, a moisture desorption section for desorbing moisture to humidify air, and an intake port and a discharge port for outdoor air supplied to the moisture absorption section, the humidifying unit being configured so that the discharge port is faced a negative pressure space around the outdoor fan (39, 39B), when the outdoor fan (39, 39B) is driven, and air changed to a different direction by the guide structure (56b, 56Ab, 56Bb, 56Cb, 56Db) flows from the intake port through the moisture absorption section and flows out through the discharge port. a casing including a blower chamber through which outdoor air passes; an outdoor heat exchanger that is mounted in the blower chamber and conducts a heat exchange with outdoor air; an outdoor fan (39, 39B) which is mounted in the blower chamber and is arranged to be driven such that outdoor air passes through the outdoor heat exchanger; a guide structure (56b, 56Ab, 56Bb, 56Cb, 56Db) provided downstream of the outdoor fan and changing the direction of a portion of air blown by the outdoor fan; and a humidifying unit that includes a moisture absorption section for absorbing moisture from outdoor air, a moisture desorption section for desorbing moisture to humidify air, and an intake port and a discharge port for outdoor air supplied to the moisture absorption section, the humidifying unit being configured so that the discharge port is faced a negative pressure space around the outdoor fan (39, 39B), when the outdoor fan (39, 39B) is driven, and air changed to a different direction by the guide structure (56b, 56Ab, 56Bb, 56Cb, 56Db) flows from the intake port through the moisture absorption section and flows out through the discharge port.
A use of characteristics of gut microbiota metagenome as a screening marker of Acarbose efficacy in patients with Type 2 diabetes, wherein the characteristic of gut microbiota metagenome is Bacteroides enterotype.