mhurhangee/ep-ind-claims huggingface dataset:
A specimen slide, comprising: a specimen area on a front surface, wherein the specimen area includes a control specimen subarea comprising a control tissue specimen and a patient specimen subarea comprising a patient tissue specimen, wherein the specimen slide includes a printing area on the front surface of the slide, wherein the printing area includes a first barcode printed directly on the front surface of the specimen slide, the first barcode having a first configuration that is at least one of a bar code type and an orientation on the slide, and a second barcode printed directly on the front surface of the specimen slide, the second barcode having a second configuration that is at least one of a bar code type and an orientation on the slide and the second configuration is different than the first configuration, wherein the first barcode encodes information corresponding to the control specimen subarea, wherein the second barcode encodes information corresponding to the patient specimen subarea. a specimen area on a front surface, wherein the specimen area includes a control specimen subarea comprising a control tissue specimen and a patient specimen subarea comprising a patient tissue specimen, wherein the specimen slide includes a printing area on the front surface of the slide, wherein the printing area includes a first barcode printed directly on the front surface of the specimen slide, the first barcode having a first configuration that is at least one of a bar code type and an orientation on the slide, and a second barcode printed directly on the front surface of the specimen slide, the second barcode having a second configuration that is at least one of a bar code type and an orientation on the slide and the second configuration is different than the first configuration,
Device for transcatheter insertion into the aortic root at the sinotubular junction by means of a guide wire and a catheter with means for protecting the surrounding tissues, said device comprising an assembly serving as a valvular embolic filter, mounted with the ability to slide in a guided manner inside said catheter, said assembly having arrangements capable of forming, in the aortic root, a safety chamber ensuring a valve function and a protective function against embolic accidents, said arrangements comprising a tubular body secured, at one of its ends, to a part which is capable, as and when required, either of being deployed outside the catheter or retracted inside the catheter, said part having filtration arrangements combined with means capable of reproducing the temporary valve function corresponding to opening during the systolic phase and to closing during the diastolic phase, in order to prevent any regurgitation of blood in a deployed position of said part for covering the native aortic valve with a seat secured in the aortic root at the sinuses of Valsalva without obstructing the blood flow; in which device said part is in the general shape of a cone and has angularly offset shells, of which the contours envelop the commissures of the native valve, said shells being mounted in combination with a filtering membrane, the latter comprising, on the one hand, a lower layer composed of a mesh network with a porosity suitable for blocking tissue debris while allowing the passage of the blood flow and, on the other hand, an upper layer made of a soft and extensible polymer material for acting as a temporary valve, by simple deformation; which device is characterized in that said layers (4a, 4b) are fixed together by welding at the base of the conical shape and on its perimeter, said weld being soft and spongy in order to provide an optimal seat for the valve filter on the base of the aortic root and in order to allow the end of said conical shape to be able to be closed progressively, until retraction inside the catheter, over the polymer material, by sliding it in order to clear the debris captured when the catheter is slid downward between the polymer material of the membrane and the polymer filter until reaching said end of said conical shape.
A method of isolating a target nucleic acid having a predefined sequence, the method comprising: (a) providing a population of X nucleic acid molecules, said population comprising a plurality of distinct nucleic acid molecules and further comprising the target nucleic acid having the predefined sequence; (b) providing a plurality of m oligonucleotides, wherein m is inferior to X; and the oligonucleotides in the plurality are oligonucleotide tags having different sequences, (c) attaching the oligonucleotide tags to one terminus of nucleic acid molecules of the population, thereby generating a subpopulation of tagged molecules, each tagged molecule in the sub-population having a different oligonucleotide tag, wherein an oligonucleotide tag is attached to the target nucleic acid having the predefined sequence; (d) amplifying the plurality of tagged molecules using primers complementary to the plurality of oligonucleotide tags; (e) sequencing the amplified plurality of tagged molecules; (f) identifying at least one target tagged molecule having the predefined sequence; and (g) isolating the at least one target tagged molecule having the predefined sequence. (a) providing a population of X nucleic acid molecules, said population comprising a plurality of distinct nucleic acid molecules and further comprising the target nucleic acid having the predefined sequence; (b) providing a plurality of m oligonucleotides, wherein m is inferior to X; and the oligonucleotides in the plurality are oligonucleotide tags having different sequences, (c) attaching the oligonucleotide tags to one terminus of nucleic acid molecules of the population, thereby generating a subpopulation of tagged molecules, each tagged molecule in the sub-population having a different oligonucleotide tag, wherein an oligonucleotide tag is attached to the target nucleic acid having the predefined sequence; (d) amplifying the plurality of tagged molecules using primers complementary to the plurality of oligonucleotide tags; (e) sequencing the amplified plurality of tagged molecules; (f) identifying at least one target tagged molecule having the predefined sequence; and (g) isolating the at least one target tagged molecule having the predefined sequence.
Technique for mounting an actuator for actuating a wastegate valve of a turbine, in particular an exhaust gas turbo-charger - in which the actuator is mounted relative to the turbine or on the exhaust gas turbo-charger with a mounting aid attached thereto which prevents an impermissible excursion of an actuating rod of the actuator, - in which the mounting aid is removed from the actuator after mounting the actuator. - in which the actuator is mounted relative to the turbine or on the exhaust gas turbo-charger with a mounting aid attached thereto which prevents an impermissible excursion of an actuating rod of the actuator, - in which the mounting aid is removed from the actuator after mounting the actuator.
A safe exhaust comprising exhaust housing, exhaust filter, intake filter and scanning device, wherein, the exhaust filter provided with double-face adhesive sealing tape on its intake surface is placed inside the exhaust housing; a positive pressure cavity is formed between the exhaust housing and the exhaust filter, and a positive pressure connector is formed on the exhaust housing; the intake filter is arranged outside of the intake port of ventilating system, the exit port of the intake filter is communicated with the intake port, and the exit port of the intake filter is attached to the positive pressure connector with an intake rubber pipe so as to communicate with the positive pressure cavity; and the scanning device is arranged on the back wall of the exhaust housing away from the exhaust filter to scan and detect the outlet of the exhaust filter; wherein the scanning device comprises interior and exterior scanning guide plates (421, 422) respectively located inside and outside of the back wall of the exhaust housing away from the exhaust filter and provided with interior and exterior magnets (431, 432)attractive with each other respectively, a detecting rod arranged on the interior magnet provided with a sampling head toward the outlet of the exhaust filter at the end of the rod thereof opposite the interior magnet, and wherein the sampling head located near to the outlet of the exhaust filter is connected to a particle counter outside of the exhaust housing through a sampling soft-tube.
Lighting unit for a motor vehicle, having a flat light source with electrical connecting contacts, in particular an OLED, and having a holder, on which the light source is arranged, wherein the holder has holding elements (8a, 8b) which can be moved towards one another and away from one another between an open-position and a closed-position, and a carrier part for the holding elements (8a, 8b), wherein the holding elements (8a, 8b) in the closed position grip edges of the light source facing away from each other so that the light source is fixed between the holding elements (8a, 8b), and wherein the holder has electrical contact elements on at least one of the holding elements (8a, 8b) which in the closed position of the holder each have contact with an assigned connecting contact of the light source, characterized in that the holding elements (8a, 8b) are integrally connected to the carrier part and that the carrier part is elastically deformable, that the holding elements (8a, 8b) can be moved towards one another and away from one another between the open position and the closed position, and that the clearance between the holding elements (8a, 8b) matches the dimensions of the light source so that the holding elements (8a, 8b) in the closed position execute a mechanical bias on the light source arranged between the holding elements (8a, 8b).
A gas turbine engine comprising a rotor and a cooling fluid delivery system, the rotor comprising a disc and a plurality of blades extending radially therefrom, each blade having a suction side and a pressure side and comprising a shank, a platform and a main portion, the main portion being radially outward of the shank and separated therefrom by the platform, and where at least one cavity is defined, each of said at least one cavity being radially inward of the platforms and between a suction side of the shank of one blade and a pressure side of the shank of an adjacent blade, and wherein the rotor further comprises at least one damper (60, 70, 84), the damper (60, 70, 84) comprising a main body in contact with at least one of said one blade and said adjacent blade, the damper further comprising a deflector nose (64, 82), the deflector nose (64, 82) extending from the main body into the cavity, wherein the deflector nose (64, 82) extends axially only along a forward portion of the axial extent of the damper main body and beyond the forward axial extent of the damper main body, wherein the deflector nose comprises a plate oriented so as to lie parallel to a wedge face of the blade platform with which the damper (60, 70, 84) is in contact, wherein the wedge face is a face of the platform adjacent and opposing a similar platform face of an adjacent blade, wherein the deflector nose is arranged so that in use it deflects a stream of cooling fluid incident into the cavity delivered by the cooling fluid delivery system, away from the suction side of the shank partially defining the cavity. the rotor comprising a disc and a plurality of blades extending radially therefrom, each blade having a suction side and a pressure side and comprising a shank, a platform and a main portion, the main portion being radially outward of the shank and separated therefrom by the platform, and where at least one cavity is defined, each of said at least one cavity being radially inward of the platforms and between a suction side of the shank of one blade and a pressure side of the shank of an adjacent blade, and wherein the rotor further comprises at least one damper (60, 70, 84), the damper (60, 70, 84) comprising a main body in contact with at least one of said one blade and said adjacent blade, the damper further comprising a deflector nose (64, 82), the deflector nose (64, 82) extending from the main body into the cavity, wherein the deflector nose (64, 82) extends axially only along a forward portion of the axial extent of the damper main body and beyond the forward axial extent of the damper main body, wherein the deflector nose comprises a plate oriented so as to lie parallel to a wedge face of the blade platform with which the damper (60, 70, 84) is in contact, wherein the wedge face is a face of the platform adjacent and opposing a similar platform face of an adjacent blade, wherein the deflector nose is arranged so that in use it deflects a stream of cooling fluid incident into the cavity delivered by the cooling fluid delivery system, away from the suction side of the shank partially defining the cavity.
A computing device for managing seasonal performance metric alerts, comprising: a memory storing one or more parameters or instructions; and at least one processor coupled to the memory, wherein the at least one processor is configured to: collect a time series of an application performance metric for a period of less than two weeks; determine daily distributions of the time series for each day within the period; apply a radial basis function kernel-based change point detection to each of the daily distributions to determine that the daily distributions include a weekend time period that has a different daily distribution than a time period before or after the weekend time period, wherein the determining comprises a detection of the weekend time period; adjust a baseline prediction of the application performance metric for a future weekend time period based on the detection of the weekend time period; and send an alert based on a deviation of a value of the application performance metric from the adjusted baseline prediction. a memory storing one or more parameters or instructions; and at least one processor coupled to the memory, wherein the at least one processor is configured to: collect a time series of an application performance metric for a period of less than two weeks; determine daily distributions of the time series for each day within the period; apply a radial basis function kernel-based change point detection to each of the daily distributions to determine that the daily distributions include a weekend time period that has a different daily distribution than a time period before or after the weekend time period, wherein the determining comprises a detection of the weekend time period; adjust a baseline prediction of the application performance metric for a future weekend time period based on the detection of the weekend time period; and send an alert based on a deviation of a value of the application performance metric from the adjusted baseline prediction. collect a time series of an application performance metric for a period of less than two weeks; determine daily distributions of the time series for each day within the period; apply a radial basis function kernel-based change point detection to each of the daily distributions to determine that the daily distributions include a weekend time period that has a different daily distribution than a time period before or after the weekend time period, wherein the determining comprises a detection of the weekend time period; adjust a baseline prediction of the application performance metric for a future weekend time period based on the detection of the weekend time period; and send an alert based on a deviation of a value of the application performance metric from the adjusted baseline prediction.
A radiant tube recuperative burner assembly having a heat exchanger and a burner; said heat exchanger comprises: a first inner tube; a second heat exchanger tube coaxial and external to the first tube; a third tube coaxial and external to said second tube; a fourth tube positioned perpendicular to said first tube; a fifth tube coaxial and internal to said fourth tube; a first gap between said first tube and said second tube; a second gap between said third tube and said second tube; a sixth gap between said fourth tube and said fifth tube; said second gap communicates with a flue gas outlet passage; a Venturi tube having an outlet that is in communication with said flue gas outlet passage and with a connection pipe between said heat exchanger and said burner; the assembly being characterised in that said flue gas outlet passage is positioned inside said fifth tube; said first gap communicates with said sixth gap; said Venturi tube is positioned transverse to said fifth tube; and the inlet of said Venturi tube communicates with said sixth gap. the assembly being characterised in that said flue gas outlet passage is positioned inside said fifth tube; said first gap communicates with said sixth gap; said Venturi tube is positioned transverse to said fifth tube; and the inlet of said Venturi tube communicates with said sixth gap.
Heating apparatus (10, 100, 200, 300) comprising both a brazier suitable to thermochemically decompose a biomass and produce at least one combustible gas and which in turn comprises a first entry aperture to receive said biomass which functions as fuel and a second aperture to receive a first comburent, and also a combustion chamber which is autonomous with respect to said brazier, is delimited by a plurality of walls (22, 23, 24, 25, 26) and is suitable to develop heat by means of a flame, further comprising conveyor means interposed between said brazier and said combustion chamber to convey said at least one combustible gas to said combustion chamber, wherein on at least one first wall of said plurality of walls (22, 23, 24, 25, 26) one or more recirculation apertures are made, each of which is connected to said second aperture of said brazier by means of recirculation means and wherein said heating apparatus also comprises a containing body configured to define, together with said first wall, a containing compartment in which said recirculation means are disposed, characterized in that said containing body is also configured to receive a second comburent from the external environment, in such a way that it is heated by said recirculation means, and to direct it into said combustion chamber.
A RF thermal fuse (102, 402, 402', 402", 402"', 402"", 902, 902a, 902b, 1302, 1302a, 1302b) comprising a body (208, 504, 1004, 1004a, 1004b, 1404, 1404a, 1404b) adapted to be positioned on a transmission line between a RF signal source and a RF device, characterized in that it further comprises: a conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) positioned in the body (208, 504, 1004, 1004a, 1004b, 1404, 1404a, 1404b) the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) having a length sufficient to provide an impedance at a point of protection on the transmission line in response to the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) contacting a live conductor of the transmission line wherein the impedance is configured to reflect a portion of the incident power of a RF signal from the RF signal source; and a driving mechanism configured to cause the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) to contact the live conductor in response to a temperature at or near the point of protection exceeding a threshold temperature. a body (208, 504, 1004, 1004a, 1004b, 1404, 1404a, 1404b) adapted to be positioned on a transmission line between a RF signal source and a RF device, characterized in that it further comprises: a conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) positioned in the body (208, 504, 1004, 1004a, 1004b, 1404, 1404a, 1404b) the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) having a length sufficient to provide an impedance at a point of protection on the transmission line in response to the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) contacting a live conductor of the transmission line wherein the impedance is configured to reflect a portion of the incident power of a RF signal from the RF signal source; and a driving mechanism configured to cause the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) to contact the live conductor in response to a temperature at or near the point of protection exceeding a threshold temperature. a conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) positioned in the body (208, 504, 1004, 1004a, 1004b, 1404, 1404a, 1404b) the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) having a length sufficient to provide an impedance at a point of protection on the transmission line in response to the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) contacting a live conductor of the transmission line wherein the impedance is configured to reflect a portion of the incident power of a RF signal from the RF signal source; and a driving mechanism configured to cause the conductive bolt (206, 502, 1002, 1002a, 1002b, 1402, 1402a, 1402b) to contact the live conductor in response to a temperature at or near the point of protection exceeding a threshold temperature.
A process for the recovery of heat generated in the continuous production of a polyether polyol using a double metal cyanide catalyst using a system comprising: (a) a continuous reactor comprising a recirculation outlet and a product storage outlet; (b) a source of alkylene oxide in fluid communication with an inlet of the continuous reactor; (c) a source of the catalyst in fluid communication with an inlet of the continuous reactor; (d) a source of low molecular weight starter in fluid communication with an inlet of the continuous reactor; and (e) a water-cooled heat exchanger comprising: a cooling water inlet in fluid communication with a source of cooling water; and a cooling water outlet in fluid communication with a boiler system, wherein the process comprises the following steps: (a) establishing oxyalkylation conditions in the continuous reactor in the presence of the catalyst; (b) continuously introducing alkylene oxide and a low molecular weight starter into the continuous reactor to form the polyether polyol; (c) continuously removing polyether polyol from the continuous reactor; (d) continuously removing heat from the polyether polyol by utilizing a water-cooled heat exchanger; and (e) feeding heated cooling water from the external water-cooled heat exchanger to the boiler system, wherein the temperature of the heated cooling water as it exits the water-cooled heat exchanger is within the range of 40°C to 85°C. (a) a continuous reactor comprising a recirculation outlet and a product storage outlet; (b) a source of alkylene oxide in fluid communication with an inlet of the continuous reactor; (c) a source of the catalyst in fluid communication with an inlet of the continuous reactor; (d) a source of low molecular weight starter in fluid communication with an inlet of the continuous reactor; and (e) a water-cooled heat exchanger comprising: a cooling water inlet in fluid communication with a source of cooling water; and a cooling water outlet in fluid communication with a boiler system, a cooling water inlet in fluid communication with a source of cooling water; and a cooling water outlet in fluid communication with a boiler system, (a) establishing oxyalkylation conditions in the continuous reactor in the presence of the catalyst; (b) continuously introducing alkylene oxide and a low molecular weight starter into the continuous reactor to form the polyether polyol; (c) continuously removing polyether polyol from the continuous reactor; (d) continuously removing heat from the polyether polyol by utilizing a water-cooled heat exchanger; and (e) feeding heated cooling water from the external water-cooled heat exchanger to the boiler system, wherein the temperature of the heated cooling water as it exits the water-cooled heat exchanger is within the range of 40°C to 85°C.