mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for extinguishing an arc, comprising: a circuit breaker with a single-arm moving assembly, and an arc chute (100, 700, 1100, 1500, 1700, 1700A, 1700B, 1900) including: a pair of opposing side walls (112, 112D, 112E, 1852) formed of an electrically insulating material; a body (110, 1610, 110D, 110DB, 110E) arranged between the side walls, the body having an open area and a plurality of slots through which to facilitate gas flow; a back wall arranged on a back side of the body, the back wall including at least one first insulator (150, 150A, 150B), characterized in that the body (110, 1610, 110D, 110DB, 110E) is a non-magnetic body, the back wall includes at least one magnet (170, 170A, 170B), the at least one first insulator (150, 150A, 150B) being arranged between the at least one magnet (170, 170A, 170B) and the open area and configured to electrically isolate the magnet from the non-magnetic body, the magnet generating a magnetic field to redirect an arc in the open area toward one of the side walls (112, 112D, 112E, 1852) and to create turbulence to cool to the arc. a circuit breaker with a single-arm moving assembly, and an arc chute (100, 700, 1100, 1500, 1700, 1700A, 1700B, 1900) including: a pair of opposing side walls (112, 112D, 112E, 1852) formed of an electrically insulating material; a body (110, 1610, 110D, 110DB, 110E) arranged between the side walls, the body having an open area and a plurality of slots through which to facilitate gas flow; a back wall arranged on a back side of the body, the back wall including at least one first insulator (150, 150A, 150B), a pair of opposing side walls (112, 112D, 112E, 1852) formed of an electrically insulating material; a body (110, 1610, 110D, 110DB, 110E) arranged between the side walls, the body having an open area and a plurality of slots through which to facilitate gas flow; a back wall arranged on a back side of the body, the back wall including at least one first insulator (150, 150A, 150B), the body (110, 1610, 110D, 110DB, 110E) is a non-magnetic body, the back wall includes at least one magnet (170, 170A, 170B), the at least one first insulator (150, 150A, 150B) being arranged between the at least one magnet (170, 170A, 170B) and the open area and configured to electrically isolate the magnet from the non-magnetic body, the magnet generating a magnetic field to redirect an arc in the open area toward one of the side walls (112, 112D, 112E, 1852) and to create turbulence to cool to the arc.
A method of producing a depleted cell population, said method comprising the steps of: (a) contacting a sample comprising cells of at least a first and second type with a microfluidic device comprising obstacles that preferentially bind said first type of cell compared to said second type of cell; and (b) collecting cells bound to said obstacles or collecting cells not bound to said obstacles, thereby producing a depleted cell population, wherein said obstacles are protrusions from one surface of the microfluidic device and are coated with a binding moiety that binds to the surface of said first type of cell, and wherein the method enriches the collected population of cells by a factor of at least 100. (a) contacting a sample comprising cells of at least a first and second type with a microfluidic device comprising obstacles that preferentially bind said first type of cell compared to said second type of cell; and (b) collecting cells bound to said obstacles or collecting cells not bound to said obstacles, thereby producing a depleted cell population,
Cutting chamber housing for an underwater pelletizer, comprising an inlet for cooling fluid and an outlet for cooling fluid with pellets, wherein the cutting chamber housing further comprises a cutting device having a rotary drive and a cutting head with rotating cutting knives and an extrusion head having a perforated plate for outputting molten plastic formed into strands, wherein the output direction of the molten plastic and the axis of rotation of the cutting device are oriented horizontally, and the inlet direction of the cooling fluid and the outlet direction of the cooling fluid with pellets are oriented orthogonally, characterized in that the cutting chamber housing comprises a stationary upper housing half and a movable lower housing half along a separation plane arranged at an oblique angle with respect to a horizontally-oriented outlet direction of the plastic material, which separation plane extends obliquely in the longitudinal direction of the cutting chamber housing in a side view of the cutting chamber housing, or extends obliquely in the transverse direction of the cutting chamber housing in a front view of the perforated plate, enabling the cutting chamber housing to be opened at least downwards along the separation plane.
A reassortant influenza A virus that can grow to higher viral titres in MDCK cells in the same time and under the same growth conditions compared with A/Puerto Rico/8/34, wherein the reassortant influenza A virus comprises backbone segments from two donor strains, wherein the PB1 and PB2 viral segments are from the 105p30 donor strain and (a) have at least 95% identity with the sequences of SEQ ID NOs: 18 and 19, or (b) encode polypeptides that have at least 99% identity to the polypeptide sequences encoded by SEQ ID NOs: 18 and 19, wherein at least one backbone viral segment of the reassortant influenza A virus is from the PR8-X donor strain, and wherein: a) the PA segment of the reassortant influenza A virus has a sequence having at least 95% identity with a sequence selected from the group consisting of SEQ ID NOs: 9 and 17, the M segment of the reassortant influenza A virus has a sequence having at least 95% identity with sequence selected from the group consisting of SEQ ID NOs: 13 and 21, the NP segment of the reassortant influenza A virus has a sequence having at least 95% identity with sequence selected from the group consisting of SEQ ID NOs: 12 and 20, the NS segment of the reassortant influenza A virus has a sequence having at least 95% identity with sequence selected from the group consisting of SEQ ID NOs: 14 and 22; or b) the backbone viral segments encode polypeptides that have at least 99% identity to the polypeptide sequences encoded by SEQ ID NOs: 12-14 or 20-22. a) the PA segment of the reassortant influenza A virus has a sequence having at least 95% identity with a sequence selected from the group consisting of SEQ ID NOs: 9 and 17, the M segment of the reassortant influenza A virus has a sequence having at least 95% identity with sequence selected from the group consisting of SEQ ID NOs: 13 and 21, the NP segment of the reassortant influenza A virus has a sequence having at least 95% identity with sequence selected from the group consisting of SEQ ID NOs: 12 and 20, the NS segment of the reassortant influenza A virus has a sequence having at least 95% identity with sequence selected from the group consisting of SEQ ID NOs: 14 and 22; or b) the backbone viral segments encode polypeptides that have at least 99% identity to the polypeptide sequences encoded by SEQ ID NOs: 12-14 or 20-22.
An apparatus for controlling wavelength-division-multiplexed light, comprising an optical-fiber amplifier for amplifying wavelength-division-multiplexed light propagated, optical branching means for branching a portion of wavelength-division-multiplexed light output from said optical-fiber amplifier, a tunable optical filter for outputting light of each wavelength of the branched wavelength-division-multiplexed light and photoelectric conversion means (14, 31) for photoelectrically converting the light of each wavelength output from said tunable optical filter and light output from the optical-fiber amplifier respectively, further characterized by: peak detection means for detecting a maximum peak value of the electric signal output from said photoelectric conversion means; power detection means for detecting total power of the wavelength-division-multiplexed light output from said optical-fiber amplifier; and a control unit for selecting a first difference between the detected total power and a set power as a feedback signal when a second difference between the maximum peak value and a peak set value is larger than the first difference, selecting the second difference as a feedback signal when the second difference is smaller than the first difference, and inputting the feedback signal to a excitation light source of said optical-fiber amplifier in such a manner that the detected power will become the set power, or in such a manner that the maximum peak value will become the peak set value. peak detection means for detecting a maximum peak value of the electric signal output from said photoelectric conversion means; power detection means for detecting total power of the wavelength-division-multiplexed light output from said optical-fiber amplifier; and a control unit for selecting a first difference between the detected total power and a set power as a feedback signal when a second difference between the maximum peak value and a peak set value is larger than the first difference, selecting the second difference as a feedback signal when the second difference is smaller than the first difference, and inputting the feedback signal to a excitation light source of said optical-fiber amplifier in such a manner that the detected power will become the set power, or in such a manner that the maximum peak value will become the peak set value.
A fucose analog for use in a method of treating sickle cell disease, the method comprising administering to a subject having sickle cell disease an effective amount of a fucose analog, wherein the fucose analog has the formula: or a pharmaceutically acceptable salt or solvate form thereof, wherein the formula can be the alpha or beta anomer or the corresponding aldose form; and each of R 1, R 3, and R 4 is independently selected from the group consisting of -OH, -OC H and -OC C 1 -C 10 alkyl.
A shaving component comprising: at least one cutting member having a cutting edge extending along a longitudinal axis (X-X); characterized by at least one flexible strip extending along a transversal axis (Y-Y), onto which the at least one cutting member is assembled; wherein said at least one flexible strip is adapted to assume a plurality of configurations while retaining said at least one cutting member in a secured position with respect to said flexible strip, wherein the at least one flexible strip has a body and further comprises at least one stripe extending from the body and being made out of the same material as said body, and onto which the at least one cutting member is welded. at least one cutting member having a cutting edge extending along a longitudinal axis (X-X); characterized by at least one flexible strip extending along a transversal axis (Y-Y), onto which the at least one cutting member is assembled; wherein
A system for centrifugally separating by density and extracting selected fractions from a container, the system comprising: a container to contain a whole material; a buoy system (500, 600), including: a first buoy member disposable in said container; a second buoy member (504, 602) disposable in said container; a connection member operably interconnecting said first buoy member and said second buoy member (504, 602); wherein the first and second buoy members and the connection member are fixed in position relative to one another; and wherein said connection member allows access to a volume defined between said first buoy member and said second buoy member (504, 602); and further comprising: a check valve (534, 622); wherein said check valve (534, 622) allows for movement of a material relative to said second buoy member (504, 602) into the volume defined between the first buoy member and the second buoy member (504, 602). a container to contain a whole material; a buoy system (500, 600), including: a first buoy member disposable in said container; a second buoy member (504, 602) disposable in said container; a connection member operably interconnecting said first buoy member and said second buoy member (504, 602); a first buoy member disposable in said container; a second buoy member (504, 602) disposable in said container; a connection member operably interconnecting said first buoy member and said second buoy member (504, 602); wherein the first and second buoy members and the connection member are fixed in position relative to one another; and wherein said connection member allows access to a volume defined between said first buoy member and said second buoy member (504, 602); and further comprising: a check valve (534, 622); a check valve (534, 622); wherein said check valve (534, 622) allows for movement of a material relative to said second buoy member (504, 602) into the volume defined between the first buoy member and the second buoy member (504, 602).
An implantable medical device (110; 210; 310) comprising: a housing portion (120; 220) defining an interior chamber; a circuit (150; 250; 480A; 480B) in the interior chamber; a first electronic component (180; 280; 480A; 480B; 610) that is not in the interior chamber; a substrate coupled to the housing, characterized in that the substrate is made from semiconductor material, the substrate including a first via (290; 361; 465; 660) extending through the substrate, the first via electrically coupling the first electronic component to the circuit, a first substrate surface configured for juxtaposition against a biological fluid. a housing portion (120; 220) defining an interior chamber; a circuit (150; 250; 480A; 480B) in the interior chamber; a first electronic component (180; 280; 480A; 480B; 610) that is not in the interior chamber; a substrate coupled to the housing, characterized in that the substrate is made from semiconductor material, the substrate including a first via (290; 361; 465; 660) extending through the substrate, the first via electrically coupling the first electronic component to the circuit, a first substrate surface configured for juxtaposition against a biological fluid.
Method for determining a concentration of at least one material in a sintered or melted powder mixture which comprises a) at least one metal powder and/or metal alloy powder and b) at least one ceramic, pulverized material, and which is used as a starting material for producing a component in an additive manufacturing method using a manufacturing device, comprising at least the steps of: - providing the powder mixture having the at least two different materials; - guiding a high-energy beam generated by a radiation source over a surface of the powder mixture in order to sinter or melt the powder mixture; - detecting at least one brightness value, in the visible and/or infrared spectral range, of at least one portion of the surface of the sintered or melted powder mixture, which portion is irradiated by means of the high-energy beam, by means of a detection apparatus during irradiation by the high-energy beam; - determining the concentration of at least one material in the powder mixture on the basis of the at least one detected brightness value and at least one predetermined reference brightness value for a concentration and/or a concentration range of the material by means of an analysis apparatus. - providing the powder mixture having the at least two different materials; - guiding a high-energy beam generated by a radiation source over a surface of the powder mixture in order to sinter or melt the powder mixture; - detecting at least one brightness value, in the visible and/or infrared spectral range, of at least one portion of the surface of the sintered or melted powder mixture, which portion is irradiated by means of the high-energy beam, by means of a detection apparatus during irradiation by the high-energy beam; - determining the concentration of at least one material in the powder mixture on the basis of the at least one detected brightness value and at least one predetermined reference brightness value for a concentration and/or a concentration range of the material by means of an analysis apparatus.
A method for wireless communications at a first wireless device, comprising: transmitting, to a second wireless device, an indication of one or more different sets of antenna elements for communications with the second wireless device, wherein the one or more different sets of antenna elements include a number of antenna elements from a plurality of antenna elements of the first wireless device; receiving (420, 425), from the second wireless device, one or more training signals as part of a beam training procedure for the first wireless device, wherein the beam training procedure is based on the indication of the one or more different sets of antenna elements, selecting a beam preferred by the first wireless device; and communicating (435, 445), with the second wireless device, using one of the one or more different sets of antenna elements, the one set of antenna elements used for communicating being associated with the selected beam, the communicating being based on one or more transmission control parameters, wherein the one or more transmission control parameters include a maximum transmittable power parameter determined based on the number of antenna elements of the one set of antenna elements used for communicating. transmitting, to a second wireless device, an indication of one or more different sets of antenna elements for communications with the second wireless device, wherein the one or more different sets of antenna elements include a number of antenna elements from a plurality of antenna elements of the first wireless device; receiving (420, 425), from the second wireless device, one or more training signals as part of a beam training procedure for the first wireless device, wherein the beam training procedure is based on the indication of the one or more different sets of antenna elements, selecting a beam preferred by the first wireless device; and communicating (435, 445), with the second wireless device, using one of the one or more different sets of antenna elements, the one set of antenna elements used for communicating being associated with the selected beam, the communicating being based on one or more transmission control parameters, wherein the one or more transmission control parameters include a maximum transmittable power parameter determined based on the number of antenna elements of the one set of antenna elements used for communicating.
3D viewing glasses comprising: removable temples with an attachment mechanism; and a retaining mechanism for retaining lenses, the retaining mechanism comprising a) edges from which light could be reflected into a viewing path of the wearer, and b) areas that typically come into contact with the wearer, wherein said edges from which light could be reflected into a viewing path of the wearer comprise non-reflective surfaces, and wherein said areas that typically come into contact with the wearer comprise reflective surfaces (1310, 1620) that are smoother than the non-reflective surfaces and function to help keep the glasses clean, wherein the retaining mechanism comprises snap rings for retaining lenses and the edges from which light could be reflected into a viewing path of the wearer comprise edges of the snap rings. removable temples with an attachment mechanism; and a retaining mechanism for retaining lenses, the retaining mechanism comprising a) edges from which light could be reflected into a viewing path of the wearer, and b) areas that typically come into contact with the wearer, wherein said edges from which light could be reflected into a viewing path of the wearer comprise non-reflective surfaces, and wherein said areas that typically come into contact with the wearer comprise reflective surfaces (1310, 1620) that are smoother than the non-reflective surfaces and function to help keep the glasses clean, wherein the retaining mechanism comprises snap rings for retaining lenses and the edges from which light could be reflected into a viewing path of the wearer comprise edges of the snap rings.
Ion exchanger for treating a liquid fluid of a functional system, in particular of a cooling fluid of a cooling device, in particular of a fuel-cell system, in particular of a motor vehicle, with an ion exchanger tank which features an inlet for fluid to be treated and an outlet for treated fluid and in which a granular ion exchanger medium is disposed fluidically between the inlet and the outlet, wherein the ion exchanger tank is designed as flexible bag, wherein the flexible bag features a meandering channel for the fluid which connects the inlet with the outlet and in which is located the ion exchanger medium, wherein the meandering channel features parallel and adjacent channel sections, characterized in that the bag is wound to form an approximate cylindrical body.
Method for monitoring a process and/or production plant that comprises a plurality of components and that is planned by means of a plurality of engineering systems (14, 16, 18, 20, 22, 24), wherein the engineering systems are provided by engineering applications, in particular by computer-aided engineering applications, and wherein the engineering applications provide different tools for planning and creating the process and/or production plant, having the following steps: a) provision of first result data pertaining to at least one portion of the components by a first of the engineering systems, wherein the first result data are a map of the present planning level of the engineering process of the first engineering system and are made available in a first export structure, b) provision of second result data pertaining to at least one portion of the components by a second of the engineering systems, wherein the second result data are a map of the present planning level of the engineering process of the second engineering system and are made available in a second export structure, and c) wherein the first and second result data arise in accordance with the order of the engineering process, d) extraction of topology data, which describe an arrangement of the components within the process and/or automation plant, and operating data for the components from the first and second result data (26, 28), and e) creation of a model for the process and/or production plant on the basis of the topology data and the operating data by virtue of a link to the first and second result data (26, 28) being provided in the model, wherein f) missing cross-application references are reported during production of the model. a) provision of first result data pertaining to at least one portion of the components by a first of the engineering systems, wherein the first result data are a map of the present planning level of the engineering process of the first engineering system and are made available in a first export structure, b) provision of second result data pertaining to at least one portion of the components by a second of the engineering systems, wherein the second result data are a map of the present planning level of the engineering process of the second engineering system and are made available in a second export structure, and c) wherein the first and second result data arise in accordance with the order of the engineering process, d) extraction of topology data, which describe an arrangement of the components within the process and/or automation plant, and operating data for the components from the first and second result data (26, 28), and e) creation of a model for the process and/or production plant on the basis of the topology data and the operating data by virtue of a link to the first and second result data (26, 28) being provided in the model, wherein f) missing cross-application references are reported during production of the model.