mhurhangee/ep-ind-claims huggingface dataset:
A seal molding system for forming a seal (300, 470) around a fitting mounted to a panel, comprising: a mold body having a mold inner geometry formed complementary to a fitting outer geometry of a fitting, the mold body having a mold base formed complementary to a panel surface, and the mold body including an injection hole for injecting sealant into a mold cavity, and a vent hole for venting air and sealant from the mold cavity, the seal molding system further including: a seal skin lower plate having a lower plate outer geometry simulating the fitting outer geometry and the panel surface, the mold body being mateable to the seal skin lower plate to define the mold cavity for forming a seal skin from sealant injected into the mold cavity, and the seal skin lower plate and the mold body being separable from one another for removal of the seal skin for subsequent bonding to the fitting installed on the panel, wherein the mold body includes at least one port-forming post for forming an injection port and/or a vent port in the seal skin for bonding the seal skin to the fitting and the panel. a mold body having a mold inner geometry formed complementary to a fitting outer geometry of a fitting, the mold body having a mold base formed complementary to a panel surface, and the mold body including an injection hole for injecting sealant into a mold cavity, and a vent hole for venting air and sealant from the mold cavity, the seal molding system further including: a seal skin lower plate having a lower plate outer geometry simulating the fitting outer geometry and the panel surface, the mold body being mateable to the seal skin lower plate to define the mold cavity for forming a seal skin from sealant injected into the mold cavity, and the seal skin lower plate and the mold body being separable from one another for removal of the seal skin for subsequent bonding to the fitting installed on the panel, wherein the mold body includes at least one port-forming post for forming an injection port and/or a vent port in the seal skin for bonding the seal skin to the fitting and the panel. a seal skin lower plate having a lower plate outer geometry simulating the fitting outer geometry and the panel surface, the mold body being mateable to the seal skin lower plate to define the mold cavity for forming a seal skin from sealant injected into the mold cavity, and the seal skin lower plate and the mold body being separable from one another for removal of the seal skin for subsequent bonding to the fitting installed on the panel, wherein the mold body includes at least one port-forming post for forming an injection port and/or a vent port in the seal skin for bonding the seal skin to the fitting and the panel.
Photobioreactor module for insulating and/or regulating the temperature of a building, said module comprising an algal and/or microorganism culture container in an aqueous medium, at least two parallel or substantially parallel walls defining at least one interior space said at least one interior space comprising said algal and/or microorganism culture container in an aqueous medium, one of these walls being able to serve as a facade wall or to be affixed to a facade wall of the building, said at least two walls being multi-layer walls, characterized in that said at least two multi-layer walls defining one or more air space (L 2, L 1).
A method for determining a coding format, comprising: receiving, by a called terminal, one or more data packets forwarded by a call center configured to forward data packets between a calling terminal and the called terminal during a Voice over Long Term Evolution ("VoLTE") communication, wherein one or more data packets are coded with a first coding format; characterized in that the method further comprises: detecting whether the first coding format is the same with a second coding format negotiated wherein the one or more data packets are at least two data packets; counting a number of packets in the at least two data packets for which the first coding format carried is different from the second coding format; detecting whether the number is greater than a predetermined threshold; modifying the coding format used during the VoLTE communication from the second coding format to the first coding format, if the number is greater than the predetermined threshold; and neglecting the data packets coded with the first coding format if the number is smaller than the predetermined threshold. receiving, by a called terminal, one or more data packets forwarded by a call center configured to forward data packets between a calling terminal and the called terminal during a Voice over Long Term Evolution ("VoLTE") communication, wherein one or more data packets are coded with a first coding format; characterized in that the method further comprises: detecting whether the first coding format is the same with a second coding format negotiated wherein the one or more data packets are at least two data packets; counting a number of packets in the at least two data packets for which the first coding format carried is different from the second coding format; detecting whether the number is greater than a predetermined threshold; modifying the coding format used during the VoLTE communication from the second coding format to the first coding format, if the number is greater than the predetermined threshold; and neglecting the data packets coded with the first coding format if the number is smaller than the predetermined threshold. detecting whether the first coding format is the same with a second coding format negotiated wherein the one or more data packets are at least two data packets; counting a number of packets in the at least two data packets for which the first coding format carried is different from the second coding format; detecting whether the number is greater than a predetermined threshold; modifying the coding format used during the VoLTE communication from the second coding format to the first coding format, if the number is greater than the predetermined threshold; and neglecting the data packets coded with the first coding format if the number is smaller than the predetermined threshold.
A system, comprising: a controller configured to control an operational behavior of a turbine system, comprising: a droop response system configured to detect one or more operational characteristics of the turbine system as an indication of a frequency variation of an electric power system associated with the turbine system, wherein the droop response system is further configured to generate a response as a nominal fuel flow command to vary an output of the turbine system in response to the indication of the frequency variation; and a proportional droop correction control system configured to: determine a correction factor based on a droop power response and a nominal droop power ratio, wherein the droop power response is calculated based on a gas turbine power output and a speed-load error and wherein the nominal droop power ratio is the target to which the droop power response is controlled; and generate the correction factor to apply to the response generated by the droop response system, wherein the correction factor is configured to correct the response generated by the droop response system. a droop response system configured to detect one or more operational characteristics of the turbine system as an indication of a frequency variation of an electric power system associated with the turbine system, wherein the droop response system is further configured to generate a response as a nominal fuel flow command to vary an output of the turbine system in response to the indication of the frequency variation; and a proportional droop correction control system configured to: determine a correction factor based on a droop power response and a nominal droop power ratio, wherein the droop power response is calculated based on a gas turbine power output and a speed-load error and wherein the nominal droop power ratio is the target to which the droop power response is controlled; and generate the correction factor to apply to the response generated by the droop response system, wherein the correction factor is configured to correct the response generated by the droop response system. determine a correction factor based on a droop power response and a nominal droop power ratio, wherein the droop power response is calculated based on a gas turbine power output and a speed-load error and wherein the nominal droop power ratio is the target to which the droop power response is controlled; and generate the correction factor to apply to the response generated by the droop response system, wherein the correction factor is configured to correct the response generated by the droop response system.
An optical modulator comprising: an optical resonator structure (100, 150, 232) comprising at least one curved portion, the at least one curved portion comprising at least one radial junction region (104, 152, 220); wherein the at least one radial junction region (104, 152, 220) is formed between at least first and second materials (154, 156), respectively, having different electronic conductivity characteristics; and wherein the at least one radial junction region (104, 152, 220) is oriented radially with respect to the at least one curved portion; a first electrical contact (106, 158, 206) disposed on the first material and a second electrical contact (106, 158, 206) disposed on the second material; and a first optical waveguide bus (110, 204) optically coupled to the at least one curved portion of the optical resonator structure (100, 150, 232), and characterized in that the optical resonator structure (100, 150, 232) lacks partially etched regions. an optical resonator structure (100, 150, 232) comprising at least one curved portion, the at least one curved portion comprising at least one radial junction region (104, 152, 220); wherein the at least one radial junction region (104, 152, 220) is formed between at least first and second materials (154, 156), respectively, having different electronic conductivity characteristics; and wherein the at least one radial junction region (104, 152, 220) is oriented radially with respect to the at least one curved portion; a first electrical contact (106, 158, 206) disposed on the first material and a second electrical contact (106, 158, 206) disposed on the second material; and a first optical waveguide bus (110, 204) optically coupled to the at least one curved portion of the optical resonator structure (100, 150, 232), and characterized in that the optical resonator structure (100, 150, 232) lacks partially etched regions.
A process for preparing a low calcium sensitive gellan gum, comprising preparing a gellan gum fermentation broth, adjusting the pH of the native gellan fermentation broth to below 6.5 by adding an acid, and then pasteurizing the broth; wherein the fermentation broth is maintained at a pH of below 6.5 during the pasteurizing; and wherein the low calcium sensitive gellan gum has a set temperature of greater than 70°C.
A device for generating a skin graft, comprising: a hollow body having a distal end including an orifice plate configured for placement on the skin, said orifice plate having at least one opening, a heating component for providing warming of said orifice plate, a vacuum source for generating a negative pressure in said hollow body for forming at least one blister protruding at least partially through said opening of the orifice plate, and a cutter plate positioned in said hollow body for cutting the blister, wherein said cutter plate comprises at least an opening through which at least a portion of said blister protrudes. a hollow body having a distal end including an orifice plate configured for placement on the skin, said orifice plate having at least one opening, a heating component for providing warming of said orifice plate, a vacuum source for generating a negative pressure in said hollow body for forming at least one blister protruding at least partially through said opening of the orifice plate, and a cutter plate positioned in said hollow body for cutting the blister, wherein said cutter plate comprises at least an opening through which at least a portion of said blister protrudes.
A fluid composition comprising: an aqueous downhole fluid selected from the group consisting of fracturing fluids, injection fluids, and combinations thereof; at least one polymer selected from the group consisting of polyacrylamide, xanthan gum, guar gum, polyacrylic acid, poly 2-acrylamido-2-methyl-1-propane sulfonic acid (AMPS), polyethylene oxide, polypropylene oxide, and combinations thereof; wherein the polymers are selected from the group consisting of homopolymers, copolymers, terpolymers, and combinations thereof; and wherein the at least one polymer comprises at least one functional group grafted thereonto selected from the group consisting of polyacrylamide, polyacrylic acid, and combinations thereof; charged nanoparticles in an amount effective to crosslink at least a portion of the polymers, where the charged nanoparticles are selected from the group consisting of clay nanoparticles and wherein the effective amount of the charged nanoparticles within the aqueous downhole fluid ranges from 0.1 ppm to 5000 ppm. an aqueous downhole fluid selected from the group consisting of fracturing fluids, injection fluids, and combinations thereof; at least one polymer selected from the group consisting of polyacrylamide, xanthan gum, guar gum, polyacrylic acid, poly 2-acrylamido-2-methyl-1-propane sulfonic acid (AMPS), polyethylene oxide, polypropylene oxide, and combinations thereof; wherein the polymers are selected from the group consisting of homopolymers, copolymers, terpolymers, and combinations thereof; and wherein the at least one polymer comprises at least one functional group grafted thereonto selected from the group consisting of polyacrylamide, polyacrylic acid, and combinations thereof; charged nanoparticles in an amount effective to crosslink at least a portion of the polymers, where the charged nanoparticles are selected from the group consisting of clay nanoparticles and wherein the effective amount of the charged nanoparticles within the aqueous downhole fluid ranges from 0.1 ppm to 5000 ppm.
A solid oral dosage form comprising a ketamine metabolite selected from 2R,6R-hydroxynorketamine and 2S,6S-hydroxynorketamine as a solid low molecular weight salt thereof, wherein the dosage form comprises at least 20% by weight of the ketamine metabolite, wherein the solid oral dosage form delivers the active ingredient with a human oral bioavailability of 60% or more; and wherein the low molecular weight salt of the ketamine metabolite is obtainable by reaction of the ketamine metabolite with an organic acid having Formula I or II wherein n = 0-3, R 1 and R 2 are each independently selected from -H, -OH, and -COOH, and wherein when n = 2, both R 2 may together represent a C=C bond, and wherein R 3 is -H, -OH, =O, or -COOH. wherein the low molecular weight salt of the ketamine metabolite is obtainable by reaction of the ketamine metabolite with an organic acid having Formula I or II wherein n = 0-3, R 1 and R 2 are each independently selected from -H, -OH, and -COOH, and wherein when n = 2, both R 2 may together represent a C=C bond, and wherein R 3 is -H, -OH, =O, or -COOH.
A mobile aggregate processing plant for screening aggregate material comprising a mobile chassis, a vibrating screening unit mounted on the mobile chassis and able to provide at least one aggregate discharge stream therethough, and an underscreen conveyor located wholly or substantially beneath the vibrating screening unit to wholly or substantially receive said at least one aggregate discharge stream, wherein the underscreen conveyor is driveable in an uphill direction so as to be able to discharge the aggregate discharge stream at a height higher than receiving the aggregate discharge stream, relative to the mobile chassis, characterised in that the underscreen conveyor is driveable in an uphill direction towards a discharge end of the vibrating screening unit. wherein the underscreen conveyor is driveable in an uphill direction so as to be able to discharge the aggregate discharge stream at a height higher than receiving the aggregate discharge stream, relative to the mobile chassis, characterised in that the underscreen conveyor is driveable in an uphill direction towards a discharge end of the vibrating screening unit.
An optical device, comprising: a light-transmitting substrate having at least two major surfaces parallel to each other and edges; at least one partially reflecting surface located in said substrate which is non-parallel to said major surfaces of the substrate; characterized by an array of two-dimensional display sources (4a...4d; 114 1...114 n) each comprising an array of pixels; optical means for coupling light waves from said display sources (4a...4d; 114 1...114 n) into said substrate by total internal reflection; and an array of collimating lenses (6a...6d) for projecting images, said lenses relating to the array of said two-dimensional display sources (4a...4d), the projected images from each display source being collimated by the array of associated collimating lenses (6a...6d) into collimated images having a field-of-view along two orthogonal axes, whereby the collimated light waves from said two-dimensional display sources (4a...4d; 114 1...114 n) are coupled into said substrate. a light-transmitting substrate having at least two major surfaces parallel to each other and edges; at least one partially reflecting surface located in said substrate which is non-parallel to said major surfaces of the substrate; characterized by an array of two-dimensional display sources (4a...4d; 114 1...114 n) each comprising an array of pixels; optical means for coupling light waves from said display sources (4a...4d; 114 1...114 n) into said substrate by total internal reflection; and an array of collimating lenses (6a...6d) for projecting images, said lenses relating to the array of said two-dimensional display sources (4a...4d), the projected images from each display source being collimated by the array of associated collimating lenses (6a...6d) into collimated images having a field-of-view along two orthogonal axes, whereby the collimated light waves from said two-dimensional display sources (4a...4d; 114 1...114 n) are coupled into said substrate.
A method for the manufacture of a fibre composite component, with a base element, and with at least one ancillary element (4, 6) connected to the base element, with the steps: - Preparation of a preform of the base element with at least one surface bonding region, - Positioning of a fibre composite component, with a bonding surface (22, 24) for purposes of bonding the ancillary element (4, 6) in the bonding region of the base element, - Integration of the reinforcement element into the base element preform by the partial overlapping of the reinforcement element with fibre layers (56, 58) of the base element preform, - Curing of the base element preform populated with the reinforcement element, - Preparing of the at least one bonding surface (22, 24) by a removal of the surface of the at least one reinforcement element, such that after the removal the ends of fibre sections (46, 48) emanate from the at least one bonding surface (22, 24) for mechanical intermeshing with the ancillary element, and such that the bonding surface (22, 24) transitions into surrounding surface sections of the base element in a stepless manner, - Positioning of the preform of the ancillary element in the wet state on the base element on the bonding surface (22, 24), and - Curing of the ancillary element preform. - Preparation of a preform of the base element with at least one surface bonding region, - Positioning of a fibre composite component, with a bonding surface (22, 24) for purposes of bonding the ancillary element (4, 6) in the bonding region of the base element, - Integration of the reinforcement element into the base element preform by the partial overlapping of the reinforcement element with fibre layers (56, 58) of the base element preform, - Curing of the base element preform populated with the reinforcement element, - Preparing of the at least one bonding surface (22, 24) by a removal of the surface of the at least one reinforcement element, such that after the removal the ends of fibre sections (46, 48) emanate from the at least one bonding surface (22, 24) for mechanical intermeshing with the ancillary element, and such that the bonding surface (22, 24) transitions into surrounding surface sections of the base element in a stepless manner, - Positioning of the preform of the ancillary element in the wet state on the base element on the bonding surface (22, 24), and - Curing of the ancillary element preform.
A susceptor for a dough-based vase-shaped snack heatable by microwave, said snack comprising: a vase-shaped outer layer made of dough having a closed lower portion and a rim upper portion around an open top, a savoury or sweet filling located within said outer layer and having a top surface exposed at said open top of the outer layer and said susceptor acting as a package of said snack during heating is made by a metallised polymer film capable of absorbing electromagnetic energy and converting it to heat and the susceptor including at least one peripheral wall that surrounds the vase-shaped outer layer, wherein said at least one peripheral wall of the susceptor extends above the level of the rim upper portion of said dough outer layer and the upper edge of the susceptor having an undulated pattern. a vase-shaped outer layer made of dough having a closed lower portion and a rim upper portion around an open top, a savoury or sweet filling located within said outer layer and having a top surface exposed at said open top of the outer layer and said susceptor acting as a package of said snack during heating is made by a metallised polymer film capable of absorbing electromagnetic energy and converting it to heat and the susceptor including at least one peripheral wall that surrounds the vase-shaped outer layer, wherein said at least one peripheral wall of the susceptor extends above the level of the rim upper portion of said dough outer layer and the upper edge of the susceptor having an undulated pattern.
A method for using a microarray product, the method comprising: obtaining a microarray product; performing a bioassay by a first customer using said microarray product; obtaining by said first customer from a manufacturer of the microarray product a first decoding information data package for control measurements on the microarray product to determine if the assay was performed correctly but not for analytical data of analytes on the microarray product; and obtaining, by a second customer, from a manufacturer of the microarray product a second decoding information data package for analytical data of analytes on the microarray product. obtaining a microarray product; performing a bioassay by a first customer using said microarray product; obtaining by said first customer from a manufacturer of the microarray product a first decoding information data package for control measurements on the microarray product to determine if the assay was performed correctly but not for analytical data of analytes on the microarray product; and obtaining, by a second customer, from a manufacturer of the microarray product a second decoding information data package for analytical data of analytes on the microarray product.