mhurhangee/patent-ind-claim-en huggingface dataset:
Seal insert for sealing a line with respect to a recess in a wall portion of a building wall, having - an outer sealing portion which is carried by a shape-variable sealing member and which has a cylindrical outer covering face and which is configured for sealing with respect to the recess, - at least one inner sealing portion (5, 105a-c) for sealing with respect to the line, and - a first clamping device for clamping the outer sealing portion , wherein the first clamping device has two clamping members which can be moved relative to each other for clamping the outer sealing portion , wherein the sealing member and the outer covering face expand radially outwards, and wherein a stop limits the clamping of the outer sealing portion with the covering face thereof, characterised in that the at least one inner sealing portion (5, 105a-c) is decoupled from the outer sealing portion with the covering face thereof in order to prevent being influenced by the first clamping device . - an outer sealing portion which is carried by a shape-variable sealing member and which has a cylindrical outer covering face and which is configured for sealing with respect to the recess, - at least one inner sealing portion (5, 105a-c) for sealing with respect to the line, and - a first clamping device for clamping the outer sealing portion , wherein the first clamping device has two clamping members which can be moved relative to each other for clamping the outer sealing portion , wherein the sealing member and the outer covering face expand radially outwards, and wherein a stop limits the clamping of the outer sealing portion with the covering face thereof, characterised in that the at least one inner sealing portion (5, 105a-c) is decoupled from the outer sealing portion with the covering face thereof in order to prevent being influenced by the first clamping device .
A flame-resistant wick (1; 1a; 1b; 1d; 1e) comprising: a hollow chamber ; and at least one capillary structure (20; 20a) surrounding the hollow chamber and interlaced by a plurality of wire strands into a tubular shape, with each of the plurality of wire strands consisting of a plurality of core wires (211, 221; 211d, 221d) made of a material having a melting point of not less than 800 °C, wherein the at least one capillary structure (20; 20a) is flexible, characterized in that the at least one capillary structure (20; 20a) is bent into a U shape to form an igniting end and two drawing ends located opposite to the igniting end . a hollow chamber ; and at least one capillary structure (20; 20a) surrounding the hollow chamber and interlaced by a plurality of wire strands into a tubular shape, with each of the plurality of wire strands consisting of a plurality of core wires (211, 221; 211d, 221d) made of a material having a melting point of not less than 800 °C, wherein the at least one capillary structure (20; 20a) is flexible, characterized in that the at least one capillary structure (20; 20a) is bent into a U shape to form an igniting end and two drawing ends located opposite to the igniting end .
A method for the recombinant production of debrilase comprising (a) culturing a host cell comprising one or more vectors, wherein the one or more vectors encode in expressible form debrilase and a proteinaceous inhibitor of debrilase under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase; or (a') culturing a host cell the genome of which encodes in expressible form debrilase and a proteinaceous inhibitor of debrilase, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase, and wherein the coding sequences of debrilase and/or the proteinaceous inhibitor have been introduced into the host cell genome by applying a CRISPR technology, under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed; and (b) isolating the debrilase expressed in step (a) or (a'), wherein the proteinaceous inhibitor of debrilase is selected from the group consisting of aprotinin, plasminostreptin (I16.001), proteinase inhibitor type-2 K (PIN2K, I20.001), ecotin (I11.001), trypsin inhibitor MCTI-1 (I07.001), ascidian trypsin inhibitor (I05.001), peptidase inhibitor 5 (KappaPI-actitoxin-Avd3a, I02.026), and tissue factor pathway inhibitor-2 inhibitor unit 1 (TFPI2, I02.013). (a) culturing a host cell comprising one or more vectors, wherein the one or more vectors encode in expressible form debrilase and a proteinaceous inhibitor of debrilase under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase; or (a') culturing a host cell the genome of which encodes in expressible form debrilase and a proteinaceous inhibitor of debrilase, so that the proteinaceous inhibitor of debrilase is present in the host cell at the same time and at the same cellular compartment as debrilase, and wherein the coding sequences of debrilase and/or the proteinaceous inhibitor have been introduced into the host cell genome by applying a CRISPR technology, under conditions wherein debrilase and the proteinaceous inhibitor of debrilase are expressed; and (b) isolating the debrilase expressed in step (a) or (a'),
Procedure for the production and purification of a recombinant protein VP60 from a Rabbit Hemorrhagic Disease Virus (RHDV) comprising an amino acid sequence presenting a polyhistidine tail at the carboxy-terminal end, the procedure comprises at least the following phases: - isolation of a nucleotide sequence coding for VP60 from a viral strain of RHDV, in turn, comprising the steps of: - extraction of viral RNA and of reverse transcription of said viral RNA to obtain a sequence of cDNA; - at least an amplification of said sequence of cDNA; - cloning of said amplified sequence of cDNA in a transfer vector encoding said polyhistidine tail; - expression and synthesis of said recombinant protein; and - extraction and purification of said recombinant protein; said extraction and purification phase comprises an affinity chromatography wherein said extraction and purification phase comprises at least one dialysis phase at a pH value substantially equal to 5.5 with a solution comprising NaCl, KCl, KH2PO4, Na2HPO4, NaH2PO4 and HCl. - isolation of a nucleotide sequence coding for VP60 from a viral strain of RHDV, in turn, comprising the steps of: - extraction of viral RNA and of reverse transcription of said viral RNA to obtain a sequence of cDNA; - at least an amplification of said sequence of cDNA; - extraction of viral RNA and of reverse transcription of said viral RNA to obtain a sequence of cDNA; - at least an amplification of said sequence of cDNA; - cloning of said amplified sequence of cDNA in a transfer vector encoding said polyhistidine tail; - expression and synthesis of said recombinant protein; and - extraction and purification of said recombinant protein;
Drive device for a vehicle, having a transmission drive shaft and having an electric machine with a rotor shaft , wherein the rotor shaft is designed as a hollow shaft with internal toothing, into which the transmission drive shaft that is coaxial therewith and has external toothing is inserted, specifically forming a torque-transmitting spline , wherein the rotor shaft is led to the outside through a bearing opening of an electric machine housing with the interposition of a rotor shaft rotary bearing , wherein the transmission drive shaft has a centring seat , which is in contact with a clearance fit with the internal circumference of the rotor shaft , wherein, during driving operation, the transmission drive shaft is subjected to bending stress (D) on account of radially acting operating forces (F R ), characterized in that to reduce the bending stress (D), the centring seat of the transmission drive shaft is arranged to be axially flush with the rotor shaft rotary bearing without any axial offset relative to the rotor shaft rotary bearing , in that the transmission drive shaft projects into the rotor shaft with its shaft end face on the electric machine side, and in that the centring seat adjoins the shaft end face on the electric machine side directly, which means without the interposition of the external toothing , and in that the centring seat merges in the direction of a shaft end face on the transmission side into a reduced-diameter shaft section and, in the further axial course, into the larger-diameter external toothing .
A hydridable alloy of formula R 1-x-y Y x Mg y Ni s-z M z where: R is one or more elements selected from among La, Ce, Nd, Pr, Gd, Sm; M is one or more elements selected from among Mn, Fe, Al, Co, Cu, Zr, Sn and Cr; 0.05 ≤ x ≤ 0.5 0 ≤ y ≤ 0.3; 3.3 ≤ s ≤ 3.85 and 0.05 ≤ z ≤ 0.5; said alloy comprising at least one crystalline phase of structure A 2 B 7 and/or at least one crystalline phase of structure A 5 B 19 , the main crystalline lattice of the crystalline phase of structure A 2 B 7 and/or that of the crystalline phase of structure A 5 B 19 having a strain rate, measured before hydriding, less than or equal to 0.040 % ± 0.002 %, the mean atomic radius of the atoms forming group A being less than or equal to 1.810 Å. R is one or more elements selected from among La, Ce, Nd, Pr, Gd, Sm; M is one or more elements selected from among Mn, Fe, Al, Co, Cu, Zr, Sn and Cr; 0.05 ≤ x ≤ 0.5 0 ≤ y ≤ 0.3; 3.3 ≤ s ≤ 3.85 and 0.05 ≤ z ≤ 0.5; said alloy comprising at least one crystalline phase of structure A 2 B 7 and/or at least one crystalline phase of structure A 5 B 19 , the main crystalline lattice of the crystalline phase of structure A 2 B 7 and/or that of the crystalline phase of structure A 5 B 19 having a strain rate, measured before hydriding, less than or equal to 0.040 % ± 0.002 %, the mean atomic radius of the atoms forming group A being less than or equal to 1.810 Å.
A pump sleeve for an inversion pump for use in an integrated drive generator comprising: a pump sleeve body extending between a first end and a second end, said first end being at a location adjacent an enlarged endplate , and said body extending to said second end with a generally cylindrical body portion having a bore of an inner diameter (D) from said first end to said second end, and extending between said first and second ends for a first distance (d1), wherein said pump sleeve has two circumferentially spaced windows to provide fluid ports, and each of said windows extends for a second distance (d2) measured parallel to a central axis of said cylindrical portion, wherein said windows extend between two circumferential ends ; and wherein there is a keyway slot formed through said pump sleeve body circumferentially intermediate said two circumferentially spaced windows; characterized in that a ratio of said first distance (d1) to said inner diameter (D) is between 1.8 and 2.0; a ratio of said second distance (d2) to said inner diameter (D) is between 0.5 and 0.7; a ratio of said second distance (d2) to said first distance (d1) is between 0.25 and 0.39; one of said windows extends for between 90 and 110 degrees in said circumferential distance and a second of said windows extends for between 99 and 119 degrees in said circumferential distance. a pump sleeve body extending between a first end and a second end, said first end being at a location adjacent an enlarged endplate , and said body extending to said second end with a generally cylindrical body portion having a bore of an inner diameter (D) from said first end to said second end, and extending between said first and second ends for a first distance (d1), wherein said pump sleeve has two circumferentially spaced windows to provide fluid ports, and each of said windows extends for a second distance (d2) measured parallel to a central axis of said cylindrical portion, wherein said windows extend between two circumferential ends ; and wherein there is a keyway slot formed through said pump sleeve body circumferentially intermediate said two circumferentially spaced windows; a ratio of said first distance (d1) to said inner diameter (D) is between 1.8 and 2.0; a ratio of said second distance (d2) to said inner diameter (D) is between 0.5 and 0.7; a ratio of said second distance (d2) to said first distance (d1) is between 0.25 and 0.39; one of said windows extends for between 90 and 110 degrees in said circumferential distance and a second of said windows extends for between 99 and 119 degrees in said circumferential distance.
A method for improving the heat stability or heat resistance of a cured fluorosilicone elastomer comprising: I) mixing a stabilizer with a fluorosilicone elastomer base and a cure agent, to form a curable fluorosilicone elastomer composition wherein the fluorosilicone elastomer base comprises: A1) a perfluoroalkyl polydiorganopolysiloxane, A2) a reinforcing filler, A3) an optional non fluorinated polydiorganopolysiloxane A4) an optional cerium hydroxide or cerium hydrate, and A5) an optional adhesion promoter; and said stabilizer comprises; B1) yellow iron oxide, and B2) optionally, an acid acceptor, II) vulcanizing the fluorosilicone elastomer composition containing the stabilizer. I) mixing a stabilizer with a fluorosilicone elastomer base and a cure agent, to form a curable fluorosilicone elastomer composition wherein the fluorosilicone elastomer base comprises: A1) a perfluoroalkyl polydiorganopolysiloxane, A2) a reinforcing filler, A3) an optional non fluorinated polydiorganopolysiloxane A4) an optional cerium hydroxide or cerium hydrate, and A5) an optional adhesion promoter; and said stabilizer comprises; B1) yellow iron oxide, and B2) optionally, an acid acceptor, A1) a perfluoroalkyl polydiorganopolysiloxane, A2) a reinforcing filler, A3) an optional non fluorinated polydiorganopolysiloxane A4) an optional cerium hydroxide or cerium hydrate, and A5) an optional adhesion promoter; and said stabilizer comprises; B1) yellow iron oxide, and B2) optionally, an acid acceptor, B1) yellow iron oxide, and B2) optionally, an acid acceptor, II) vulcanizing the fluorosilicone elastomer composition containing the stabilizer.
An analyte testing device with a mobile processing device having a camera with a camera lens , and a processor adapted to process an image captured by the camera , the analyte testing device comprising: a casing ; an optical unit that includes a test strip positioner adapted to position an analyte containing test strip in a position, wherein the camera lens can capture an image of the analyte containing test strip that is illuminated by a light source provided in the optical unit and adapted to direct light within the casing to illuminate the analyte containing test strip to facilitate the capture of the image of the test strip ; and said processor comprising software contained within the mobile processing device and adapted to perform a quantitative analysis of at least one analyte from the captured image, and adapted to provide an output of the results of the quantitative analysis, wherein the mobile processing device is movably coupled to the casing of the analyte testing device between a testing position and a non-testing position, and wherein the mobile processing device comprises a mobile communications device . a casing ; an optical unit that includes a test strip positioner adapted to position an analyte containing test strip in a position, wherein the camera lens can capture an image of the analyte containing test strip that is illuminated by a light source provided in the optical unit and adapted to direct light within the casing to illuminate the analyte containing test strip to facilitate the capture of the image of the test strip ; and said processor comprising software contained within the mobile processing device and adapted to perform a quantitative analysis of at least one analyte from the captured image, and adapted to provide an output of the results of the quantitative analysis, wherein the mobile processing device is movably coupled to the casing of the analyte testing device between a testing position and a non-testing position, and wherein the mobile processing device comprises a mobile communications device .
A network system comprising: at least one component selected from an energy receiving unit receiving energy and an energy management unit managing the energy receiving unit, wherein an energy usage amount or an energy usage rate of the energy receiving unit is adjusted; an energy usage amount or a usage rate of when the component is controlled on the basis of at least information related to energy cost is less than that of when the component is controlled without the basis of at least information related to energy cost; the energy receiving unit comprises an energy consumption unit having a normal mode and power saving mode for an operation; and when high price information is received in relation to the energy cost, it is determined whether to perform driving according to the power saving mode of the energy consumption unit; characterized in that when a time interval of high price information is included in a driving interval of the energy consumption unit, a driving type is recognized according to the power saving mode, and it is determined whether the energy consumption unit performs the power saving mode, wherein power saving driving expected information and a setting range of the energy consumption unit are displayed for comparison and a power saving release input unit is activated, wherein when the power saving release input unit is selected, the power saving mode is not performed, and wherein the setting range is a minimum limit range for maintaining a function of the energy consumption unit. at least one component selected from an energy receiving unit receiving energy and an energy management unit managing the energy receiving unit, wherein an energy usage amount or an energy usage rate of the energy receiving unit is adjusted; an energy usage amount or a usage rate of when the component is controlled on the basis of at least information related to energy cost is less than that of when the component is controlled without the basis of at least information related to energy cost; the energy receiving unit comprises an energy consumption unit having a normal mode and power saving mode for an operation; and when high price information is received in relation to the energy cost, it is determined whether to perform driving according to the power saving mode of the energy consumption unit; characterized in that when a time interval of high price information is included in a driving interval of the energy consumption unit, a driving type is recognized according to the power saving mode, and it is determined whether the energy consumption unit performs the power saving mode, wherein power saving driving expected information and a setting range of the energy consumption unit are displayed for comparison and a power saving release input unit is activated, wherein when the power saving release input unit is selected, the power saving mode is not performed, and wherein the setting range is a minimum limit range for maintaining a function of the energy consumption unit.
A method, comprising: establishing a proximity environment with respect to an elevator ; detecting a position of a user device within the proximity environment ; determining, by a processor , a source floor and a destination floor respective to the user device ; generating, by the processor , an elevator call to the elevator in accordance with the source floor and the destination floor; characterised in that the method further comprises: cancelling the elevator call, if a user carrying the user device leaves the proximity environment of an elevator landing before the elevator arrives. establishing a proximity environment with respect to an elevator ; detecting a position of a user device within the proximity environment ; determining, by a processor , a source floor and a destination floor respective to the user device ; generating, by the processor , an elevator call to the elevator in accordance with the source floor and the destination floor; characterised in that the method further comprises: cancelling the elevator call, if a user carrying the user device leaves the proximity environment of an elevator landing before the elevator arrives.
A total heat recovery defrosting control method for a total heat recovery unit, characterized in that the method comprises: operating the total heat recovery unit in a heating mode or in a heated water supply mode; determining whether a current operating condition satisfies a set defrost operating condition; comparing a heating demand with a heated water demand if it is determined that the current operating condition satisfies the set defrost operating condition, performing a heated water defrost mode if the heating demand is higher than the heated water demand; or performing a heating defrost mode if the heated water demand is higher than the heating demand. operating the total heat recovery unit in a heating mode or in a heated water supply mode; determining whether a current operating condition satisfies a set defrost operating condition; comparing a heating demand with a heated water demand if it is determined that the current operating condition satisfies the set defrost operating condition, performing a heated water defrost mode if the heating demand is higher than the heated water demand; or performing a heating defrost mode if the heated water demand is higher than the heating demand.
A solid composition comprising at least 90.0 wt.% bis(2-hydroxyethyl) terephthalate (BHET), as based on dry weight and having a pore volume in the range of 0.20 to 1.0 cm 3 /g.
Temperature control device for heating and/or cooling gases or gas mixtures, in particular for use in the field of respiratory protection, the temperature control device comprising a housing , a compressed air inlet , a supply outlet and a vortex tube having an air inlet , a warm air outlet and a cold air outlet , the vortex tube of the temperature control device being installable in at least two final assembly arrangements, there being a fluid-conducting connection between the cold air outlet of the vortex tube and the supply outlet of the temperature control device in a first final assembly arrangement of the vortex tube, and a fluid-conducting connection between the warm air outlet of the vortex tube and the supply outlet of the temperature control device in a second final assembly arrangement, characterized in that the housing consists of at least a main body and an exhaust air cap and a supply cap , the main body having a cold air side and a warm air side , and the main body being connected to the supply cap on its cold air side in the first final assembly arrangement, and being connected to the supply cap on its warm air side in the second final assembly arrangement, and the main body being connected to the exhaust air cap on its warm air side in the first final assembly arrangement, and being connected to the exhaust air cap on its cold air side in the second final assembly arrangement, the exhaust air cap having an exhaust air outlet which creates a fluid-conducting connection between the interior of the housing and the surroundings, the cross-sectional area of the fluid-conducting connection between the interior of the housing and the surroundings being changeable at least at one point by means of a throttle valve , the exhaust air outlet being fluidically connected to the warm air outlet of the vortex tube in the first final assembly arrangement, and the exhaust air outlet being fluidically connected to the cold air outlet of the vortex tube in the second final assembly arrangement.