mhurhangee/ep-ind-claims huggingface dataset:
A separation device for pre-cleaning wastewater in a building prior to discharging into a sewer system, particularly for businesses processing food products, having a screen unit comprising a wastewater inlet, a screen for retaining coarse materials present in the in-fed wastewater, a convoying screw corresponding to the screen such that the coarse materials retained by the screen can be transported into a first collection container, and a screw motor for rotating the convoying screw, having a fat separation unit connected downstream of the screen unit in the flow direction of the wastewater and comprising a separation tank for receiving the wastewater screened by the screen unit, a skimmer by means of which the fat accumulating on the wastewater surface in the separation tank is taken up and can be transported into a second collection container, and a wastewater outlet, wherein the skimmer comprises an annularly closed fat receiving element for immersing in the wastewater present in the separation tank, and a skimmer motor for driving the fat receiving element, and having a control unit for controlling the separation device, characterized in that the simmer comprises a wiper corresponding to the annularly closed fat receiving element for wiping off the fat taken up on the surface of the fat receiving element, and that the skimmer is a tube or belt skimmer and that the control unit is implemented such that said control unit switches the screw motor and/or the skimmer motor on or off depending on deposited time intervals and/or depending on at least one sensor signal. having a screen unit comprising a wastewater inlet, a screen for retaining coarse materials present in the in-fed wastewater, a convoying screw corresponding to the screen such that the coarse materials retained by the screen can be transported into a first collection container, and a screw motor for rotating the convoying screw, having a fat separation unit connected downstream of the screen unit in the flow direction of the wastewater and comprising a separation tank for receiving the wastewater screened by the screen unit, a skimmer by means of which the fat accumulating on the wastewater surface in the separation tank is taken up and can be transported into a second collection container, and a wastewater outlet, wherein the skimmer comprises an annularly closed fat receiving element for immersing in the wastewater present in the separation tank, and a skimmer motor for driving the fat receiving element, and having a control unit for controlling the separation device, characterized in that the simmer comprises a wiper corresponding to the annularly closed fat receiving element for wiping off the fat taken up on the surface of the fat receiving element, and that the skimmer is a tube or belt skimmer and that the control unit is implemented such that said control unit switches the screw motor and/or the skimmer motor on or off depending on deposited time intervals and/or depending on at least one sensor signal.
An apparatus for use in a robotic control system for manipulating a medical device toward a target, comprising: an electronic control unit coupled to a manipulator assembly of the robotic control system and to a proximity sensor; a computer-readable memory coupled to said ECU; and control logic stored in said memory configured to be executed by said ECU, said control logic configured to produce an actuation control signal to control actuation of a manipulator assembly of the robotic control system so as to navigate the medical device in and with respect to a plurality of pre-defined proximity zones each having a proximity criteria representing a span of distances from from the tissue boundary, said control logic being further configured to generate said actuation control signal based on a proximity signal indicative of at least one of a proximity metric and a contact metric related to a location of the medical device relative to tissue of a patient and in accordance with said pre-defined proximity zones; characterised in that said control logic is further configured to generate said actuation control signals so as to navigate said medical device with a reduced deflection determined in accordance with a deflection step control parameter indicative of a decrease in a deflection angle of a distal end of the medical device when the proximity signal meets the criteria of a zone closer to the tissue. an electronic control unit coupled to a manipulator assembly of the robotic control system and to a proximity sensor; a computer-readable memory coupled to said ECU; and control logic stored in said memory configured to be executed by said ECU, said control logic configured to produce an actuation control signal to control actuation of a manipulator assembly of the robotic control system so as to navigate the medical device in and with respect to a plurality of pre-defined proximity zones each having a proximity criteria representing a span of distances from from the tissue boundary, said control logic being further configured to generate said actuation control signal based on a proximity signal indicative of at least one of a proximity metric and a contact metric related to a location of the medical device relative to tissue of a patient and in accordance with said pre-defined proximity zones; characterised in that said control logic is further configured to generate said actuation control signals so as to navigate said medical device with a reduced deflection determined in accordance with a deflection step control parameter indicative of a decrease in a deflection angle of a distal end of the medical device when the proximity signal meets the criteria of a zone closer to the tissue.
An adeno-associated virus virion produced in an insect cell, comprising in its genome at least one nucleotide sequence encoding a gene product of interest, whereby the at least one nucleotide sequence is not a native AAV nucleotide sequence, and whereby in the stoichiometry of the AAV capsid proteins the amount of VP1 is at least 11% of the amount of VP3, and wherein the amount of VP1 is at least 110% of the amount of VP2, and wherein AAV capsid protein VP1 has been translated from a CTG initiation codon.
Method for the manufacture of steel sheet, in particular for the outer skin panels of vehicles, wherein a steel alloy of a desired composition is melted, cast and subsequently rolled into sheet, which sheet steel is annealed after rolling, after which it is provided with a metallic anti-corrosion coating and subsequently ski-passed, wherein the steel alloy has the following analysis in wt%: C 0.001 to 0.020 preferably 0.001-0.010 more preferably 0.001-0.006 Si 0.01 to 0.7 preferably 0.01-0.5 more preferably 0.01-0.4 Mn 0.02 to 1.5 preferably 0.02-1.0 more preferably 0.02-0.6 P max. 0.15 preferably max. 0.1 more preferably max. 0.1 S max. 0.05 preferably max. 0.03 more preferably max. 0.03 Al 0.015 to 1.0 preferably 0.015-0.5 more preferably 0.015-0.10 Nb 0.011 to 0.15 preferably 0.011-0.10 more preferably 0.011-0.05 Ti 0.01 to 0.2 preferably 0.01-0.15 more preferably 0.01-0.12 Optionally, one or a plurality of the following elements: boron up to max. 100 ppm and/or vanadium up to 0.4 wt% and/or zirconium up to 0.4 wt% and/or hafnium up to 0.5 wt%, and/or tungsten up to 0.5 wt%, and/or tantalum up to 0.5 wt%, and/or the remainder of iron and impurities introduced by melting characterised in that, to achieve a Wsa value of below 0.35 μm, a preferably dense dispersion of niobium with a content of >0.01 wt%, preferably >0.011 wt%, is added to the alloy, wherein skin pass rollers with a roughness (Ra) of 1.6 to 3.3 μm are used, wherein the heating rates during the recrystallisation annealing process lie between 8 K/s and 30 K/s. boron up to max. 100 ppm and/or vanadium up to 0.4 wt% and/or zirconium up to 0.4 wt% and/or hafnium up to 0.5 wt%, and/or tungsten up to 0.5 wt%, and/or tantalum up to 0.5 wt%, and/or the remainder of iron and impurities introduced by melting characterised in that, to achieve a Wsa value of below 0.35 μm, a preferably dense dispersion of niobium with a content of >0.01 wt%, preferably >0.011 wt%, is added to the alloy, wherein skin pass rollers with a roughness (Ra) of 1.6 to 3.3 μm are used, wherein the heating rates during the recrystallisation annealing process lie between 8 K/s and 30 K/s.
Routing device for Content Centric Network, CCN, the routing device comprising a routing table, the routing table comprising a set of entries, each entry comprising: - a content name attribute containing a content name value identifying a content, - a faces attribute containing a faces value identifying a set of devices storing data related to the content name value, and, - a mask type attribute containing a mask type value identifying a type of mask to be used for performing a routing table lookup, the mask type value being a first mask type value indicating that a masking have to start at the first byte of a content name value, or a second mask type value indicating that a masking have to start at the last byte of a content name value, the routing device being configured to perform a routing table lookup, the routing table lookup comprising the use of the mask type value of an entry to determine a covering relation between the content name value of the said entry and a content name value to be searched, the routing device being further configured to update the routing table depending on the determined covering relation. - a content name attribute containing a content name value identifying a content, - a faces attribute containing a faces value identifying a set of devices storing data related to the content name value, and, - a mask type attribute containing a mask type value identifying a type of mask to be used for performing a routing table lookup, the mask type value being a first mask type value indicating that a masking have to start at the first byte of a content name value, or a second mask type value indicating that a masking have to start at the last byte of a content name value,
A method of determining a liquid volume fraction in a multi-phase gas processed by a compressor having a suction side and a delivery side; the method comprising: a) measuring a first compressor operating parameter; b) selecting a tentative liquid volume fraction of the gas processed by the compressor; c) based on stored data representing a compressor operative curve for the tentative liquid volume fraction, determining an estimated value of a second compressor operating parameter as a function of the first compressor operating parameter; d) measuring an actual value of the second compressor operating parameter; e) comparing the actual value of the second compressor operating parameter to the estimated value of the second compressor operating parameter and determining an error therefrom; f) based on the error, selecting a different tentative liquid volume fraction and repeating steps (c) to (e) until an error value equal to or lower than an error threshold is obtained; characterized in that the second compressor operating parameter is one of a parameter related to the compressor driving power and a compression ratio related parameter. a) measuring a first compressor operating parameter; b) selecting a tentative liquid volume fraction of the gas processed by the compressor; c) based on stored data representing a compressor operative curve for the tentative liquid volume fraction, determining an estimated value of a second compressor operating parameter as a function of the first compressor operating parameter; d) measuring an actual value of the second compressor operating parameter; e) comparing the actual value of the second compressor operating parameter to the estimated value of the second compressor operating parameter and determining an error therefrom; f) based on the error, selecting a different tentative liquid volume fraction and repeating steps (c) to (e) until an error value equal to or lower than an error threshold is obtained;
An epigenetic method for identifying IPEX (immunodysregulation polyendocrinopathy enteropathy X-linked) syndrome and/or IPEX-like syndrome in a human subject selected from a fetus, a newborn, and a child, comprising a) analyzing the methylation status of i) at least one CpG position in the human gene Treg-specific demethylated region (TSDR) in FOXP3, and analyzing the methylation status of ii) at least one CpG position in at least one human control gene region that is specific for a CD4 and/or CD3 T cells or for all nucleated blood cells, on a blood sample, preferably a dried blood sample, comprising immune cells as obtained from said subject, b) determining a ratio of the methylation status as analyzed between i) and ii) in step a), and c) identifying IPEX and/or IPEX-like syndrome in said subject based on said ratio as determined in step b), wherein a value of the ratio of the methylation status of below a reference range of between 95% and 99% is indicative for a non-IPEX-Treg disorder, a value in said reference range is indicative for IPEX-like syndrome, and a value above said reference range is indicative for IPEX, thus distinguishing between IPEX and/or IPEX-like syndrome in said subject based on said reference range. a) analyzing the methylation status of i) at least one CpG position in the human gene Treg-specific demethylated region (TSDR) in FOXP3, and analyzing the methylation status of ii) at least one CpG position in at least one human control gene region that is specific for a CD4 and/or CD3 T cells or for all nucleated blood cells, on a blood sample, preferably a dried blood sample, comprising immune cells as obtained from said subject, b) determining a ratio of the methylation status as analyzed between i) and ii) in step a), and c) identifying IPEX and/or IPEX-like syndrome in said subject based on said ratio as determined in step b),
A method of melt blowing a semi-crystalline polymer blend, comprising the steps of (a) melt blending in an extruder to form a polymer blend a first amount of a bioabsorbable polymer having a first molecular weight distribution; and a second amount of said bioabsorbable polymer having a second molecular weight distribution having a weight average molecular weight between 10,000 to 50,000 Daltons, the weight average molecular weight ratio of said first molecular weight distribution to said second molecular weight distribution measured by GPC is at least two to one; wherein a substantially homogeneous blend of said first and second amounts of said bioabsorbable polymer is formed in a ratio of between 50/50 to 95/5 weight/weight percent; (b) extruding the polymer blend through a die assembly, the die assembly having a plurality of spinnerets, to form filament strands; (c) attenuating the filament strands with hot air to form microfibers; (d) collecting the microfibers on a collector screen; and (e) cooling and solidifying the microfibers to form a nonwoven web. (a) melt blending in an extruder to form a polymer blend a first amount of a bioabsorbable polymer having a first molecular weight distribution; and a second amount of said bioabsorbable polymer having a second molecular weight distribution having a weight average molecular weight between 10,000 to 50,000 Daltons, the weight average molecular weight ratio of said first molecular weight distribution to said second molecular weight distribution measured by GPC is at least two to one; wherein a substantially homogeneous blend of said first and second amounts of said bioabsorbable polymer is formed in a ratio of between 50/50 to 95/5 weight/weight percent; (b) extruding the polymer blend through a die assembly, the die assembly having a plurality of spinnerets, to form filament strands; (c) attenuating the filament strands with hot air to form microfibers; (d) collecting the microfibers on a collector screen; and (e) cooling and solidifying the microfibers to form a nonwoven web.
Method for reading information encoded in a pattern, wherein the pattern is printed on a document layer, containing a first polymer, of a value and/or security document, wherein the pattern is formed with a second polymer which is different from the first polymer, wherein the first and second polymers in each case contain a first and a second monomer, wherein the respective first monomers of the first and of the second polymer are identical, and the respective second monomers of the first and of the second polymer are different, wherein the first polymer and the second polymer in each case are polyesters, and wherein the respective second monomers of the first polymer and of the second polymer are diols, wherein the method comprises the following method step: Reading the document by detecting the presence of at least the second polymer by spectral analysis in the infrared range, wherein the information is read with spatial resolution by line-by-line scanning of the pattern.
A filling station for injecting at least one propellant gas into a canister that is closed off with a valve in the filling opening of the container head, and wherein the filling station comprises a carousel having a plurality of locations occupied by the container in a stepwise fashion during its trajectory through the filling station, and wherein, during a step of the filling station in at least one location in the carousel, a filling head injects propellant gas into the canister through the temporarily opened valve, characterized in that at least one location in the carousel, before the first location with the filling head for the injection of propellant gas, is provided with at least one sensor that is suitable for carrying out at least one of the following observations during the step of the filling station: a) whether a canister is present in that location, b) whether the canister has the expected height, c) whether a valve is present on the canister, and d) whether the valve is secured to the canister. a) whether a canister is present in that location, b) whether the canister has the expected height, c) whether a valve is present on the canister, and d) whether the valve is secured to the canister.
Pitot tube pump comprising at least one supply line and at least one discharge line, as well as a hydraulic chamber and a drive, wherein the drive, supply line and discharge line are arranged on a common side of the hydraulic chamber, wherein the drive is an electric motor, and wherein the supply line and the discharge line (30, 32) are arranged in a fixed shaft and wherein the electric motor has at least one stator and at least one rotor, wherein the stator is connected in a rotationally secure manner to the shaft and wherein the rotor is connected in a rotationally secure manner to the hydraulic chamber, characterized in that a rotor bracket forms a wall of the hydraulic chamber.
Incineration plant for solid material having - a combustion chamber in which the solid material is combusted and which is partly delimited by a front ceiling, - a combustion grate with which the solid material and combusted solid material can be conveyed through the combustion chamber, - a primary air supply below the top of the combustion grate, - a first pass arranged above the combustion chamber, the combustion chamber and the first pass forming a transition region between the combustion chamber and the first pass such that a center flow arrangement is embodied, characterized in that a protrusion is embodied in the transition region which extends downwards below the front ceiling. - a combustion chamber in which the solid material is combusted and which is partly delimited by a front ceiling, - a combustion grate with which the solid material and combusted solid material can be conveyed through the combustion chamber, - a primary air supply below the top of the combustion grate, - a first pass arranged above the combustion chamber, the combustion chamber and the first pass forming a transition region between the combustion chamber and the first pass such that a center flow arrangement is embodied,
A method for wireless communications performed by an access point of a secondary cluster, comprising: identifying (1105, 1210) a first set of access points of a primary cluster scheduled to perform downlink transmissions over a shared radio frequency spectrum band during a transmission opportunity; identifying (1110, 1225) a second set of access points comprising, for each station associated with the secondary cluster, a corresponding access point of the primary cluster selected based at least in part on a spatial characteristic of that station; selecting (1115, 1230) a first set of blacklisted stations associated with the secondary cluster for the transmission opportunity, wherein, for each blacklisted station in the set of blacklisted stations, the corresponding access point of the second set is also in the first set; and selectively performing (1120, 1235) at least one downlink transmission to a second set of stations associated with the secondary cluster during the transmission opportunity, wherein the second set of stations have not been blacklisted for the transmission opportunity, the at least one downlink transmission using spatial division multiplexing between the primary cluster and the secondary cluster; wherein identifying the second set of access points comprises determining, for each station associated with the secondary cluster, a path loss to the corresponding access point of the primary cluster; wherein the spatial characteristic of that station comprises the determined path loss. identifying (1105, 1210) a first set of access points of a primary cluster scheduled to perform downlink transmissions over a shared radio frequency spectrum band during a transmission opportunity; identifying (1110, 1225) a second set of access points comprising, for each station associated with the secondary cluster, a corresponding access point of the primary cluster selected based at least in part on a spatial characteristic of that station; selecting (1115, 1230) a first set of blacklisted stations associated with the secondary cluster for the transmission opportunity, wherein, for each blacklisted station in the set of blacklisted stations, the corresponding access point of the second set is also in the first set; and selectively performing (1120, 1235) at least one downlink transmission to a second set of stations associated with the secondary cluster during the transmission opportunity, wherein the second set of stations have not been blacklisted for the transmission opportunity, the at least one downlink transmission using spatial division multiplexing between the primary cluster and the secondary cluster; wherein identifying the second set of access points comprises determining, for each station associated with the secondary cluster, a path loss to the corresponding access point of the primary cluster; wherein the spatial characteristic of that station comprises the determined path loss.
A dual mode chemical rocket engine (100, 200) having a first primary reaction chamber for a fuel-rich monopropellant comprising a catalyst bed for the fuel-rich monopropellant, which first primary reaction chamber is connected to a secondary reaction chamber having means for injection therein of a second, oxidizer-rich monopropellant, characterized in that the fuel-rich monopropellant is Ammonium DiNitramide based or Hydroxyl Ammonium Nitrate based.