mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling the photonic output of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) of the apparatus of claim 7 characterized by: exciting a fill gas of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) using a radio frequency field generated from a source (203, 805) that is outside the electrodeless lamp (201, 304, 401, 501, 603, 702, 803); passing a fluid (202, 305, 403, 503) having a controlled temperature at a controlled flow rate over the surface of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) to cover and surround the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) to regulate the temperature of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) which produces a specific photonic output range of wavelengths from the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) for treating the fluid (202, 305, 403, 503); treating the fluid (202, 305, 403, 503) by exposing the fluid (202, 305, 403, 503) to radiation from the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) while the fluid is passing over the surface of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) to regulate the temperature of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803). exciting a fill gas of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) using a radio frequency field generated from a source (203, 805) that is outside the electrodeless lamp (201, 304, 401, 501, 603, 702, 803); passing a fluid (202, 305, 403, 503) having a controlled temperature at a controlled flow rate over the surface of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) to cover and surround the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) to regulate the temperature of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) which produces a specific photonic output range of wavelengths from the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) for treating the fluid (202, 305, 403, 503); treating the fluid (202, 305, 403, 503) by exposing the fluid (202, 305, 403, 503) to radiation from the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) while the fluid is passing over the surface of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803) to regulate the temperature of the electrodeless lamp (201, 304, 401, 501, 603, 702, 803).
A shuttle kiln, comprising: a kiln housing comprising a first flue channel (124; 124A) and a first plurality of flue risers (122; 122A) in fluid communication with the first flue channel (124; 124A), wherein the first plurality of flue risers (122; 122A) comprises a first flue riser (122-1; 122A-1) defining a first riser volume and a second flue riser (122-2; 122A-2) defining a second riser volume; and at least one shuttle (104; 104A, 104B, 104C) positioned within the kiln housing and defining a first plurality of exhaust shafts comprising a first exhaust shaft defining a first shaft volume and a second exhaust shaft defining a second shaft volume; wherein the first exhaust shaft is arranged above and in fluid communication with the first flue riser (122-1; 122A-1), the first exhaust shaft being separated from the first flue riser (122-1; 122A-1) to define a first entrainment gap therebetween; wherein the second exhaust shaft is arranged above and in fluid communication with the second flue riser (122-2; 122A-2), the second exhaust shaft being separated from the second flue riser (122-2; 122A-2) to define a second entrainment gap therebetween; and wherein a sum of the first riser volume and the first shaft volume is smaller than a sum of the second riser volume and the second shaft volume. a kiln housing comprising a first flue channel (124; 124A) and a first plurality of flue risers (122; 122A) in fluid communication with the first flue channel (124; 124A), wherein the first plurality of flue risers (122; 122A) comprises a first flue riser (122-1; 122A-1) defining a first riser volume and a second flue riser (122-2; 122A-2) defining a second riser volume; and at least one shuttle (104; 104A, 104B, 104C) positioned within the kiln housing and defining a first plurality of exhaust shafts comprising a first exhaust shaft defining a first shaft volume and a second exhaust shaft defining a second shaft volume; wherein the first exhaust shaft is arranged above and in fluid communication with the first flue riser (122-1; 122A-1), the first exhaust shaft being separated from the first flue riser (122-1; 122A-1) to define a first entrainment gap therebetween; wherein the second exhaust shaft is arranged above and in fluid communication with the second flue riser (122-2; 122A-2), the second exhaust shaft being separated from the second flue riser (122-2; 122A-2) to define a second entrainment gap therebetween; and wherein a sum of the first riser volume and the first shaft volume is smaller than a sum of the second riser volume and the second shaft volume.
Test device for testing a device under test, the test device comprising: a number of antenna ports (102, 103, 104, 105) configured to receive signals (106, 107, 108, 109) from the device under test and/or transmit signals (106, 107, 108, 109) to the device under test, and a processor (110, 410, 510) with at least one core (111, 112, 411, 412, 511, 512) for each one of the antenna ports (102, 103, 104, 105), each core (111, 112, 411, 412, 511, 512) being configured to perform at least part of the physical channel processing for the respective antenna port (102, 103, 104, 105), wherein the physical channel processing for outgoing data streams (113, 114, 313, 413, 414) comprises scrambling (220, 221) of the respective data stream (113, 114, 313, 413, 414), wherein for each outgoing data stream (113, 114, 313, 413, 414) at least two cores (111, 112, 411, 412, 511, 512) are configured to perform parallel scrambling (220, 221) of consecutive data blocks of the respective data stream (113, 114, 313, 413, 414) by applying a scrambling function (220, 221) with a variant parameter (356, 357, 358, 359, 360), and wherein every core (111, 112, 411, 412, 511, 512) is configured to calculate the variant parameter (356, 357, 358, 359, 360) of the scrambling function (220, 221) for the first element of each block of the respective data stream (113, 114, 313, 413, 414) that is processed by the respective core (111, 112, 411, 412, 511, 512). a number of antenna ports (102, 103, 104, 105) configured to receive signals (106, 107, 108, 109) from the device under test and/or transmit signals (106, 107, 108, 109) to the device under test, and a processor (110, 410, 510) with at least one core (111, 112, 411, 412, 511, 512) for each one of the antenna ports (102, 103, 104, 105), each core (111, 112, 411, 412, 511, 512) being configured to perform at least part of the physical channel processing for the respective antenna port (102, 103, 104, 105), wherein the physical channel processing for outgoing data streams (113, 114, 313, 413, 414) comprises scrambling (220, 221) of the respective data stream (113, 114, 313, 413, 414), wherein for each outgoing data stream (113, 114, 313, 413, 414) at least two cores (111, 112, 411, 412, 511, 512) are configured to perform parallel scrambling (220, 221) of consecutive data blocks of the respective data stream (113, 114, 313, 413, 414) by applying a scrambling function (220, 221) with a variant parameter (356, 357, 358, 359, 360), and wherein every core (111, 112, 411, 412, 511, 512) is configured to calculate the variant parameter (356, 357, 358, 359, 360) of the scrambling function (220, 221) for the first element of each block of the respective data stream (113, 114, 313, 413, 414) that is processed by the respective core (111, 112, 411, 412, 511, 512).
A medical connector comprising: a housing comprising: a male luer end; a female luer end; a central axis; and an internal cavity comprising a passage connecting a first region and a second region; and a rigid valve member configured to be advanced towards and away from the second region along the central axis of the housing, the rigid valve member comprising an internal passageway and a fluid chamber at one end of the valve member, the fluid chamber having a closed tip and a hole adjacent the closed tip; wherein the medical connector has a first position in which at least a portion of the fluid chamber comprising the hole is positioned in the passage and fluid flow between the internal passageway and the first region is impeded, and wherein the fluid flow between the female luer end and the internal passageway is impeded when the medical connector is in the first position; wherein the medical connector has a second position in which the rigid valve member is advanced towards the first region and fluid communication between the interior of the medical connector and the first region via the hole is enabled, and wherein the fluid flow between the female luer end and the internal passageway is enabled when the medical connector is in the second position; and wherein the passage has a cross-sectional width that is smaller than both a cross-sectional width of the first region and a cross-sectional width of the second region. a housing comprising: a male luer end; a female luer end; a central axis; and an internal cavity comprising a passage connecting a first region and a second region; and a male luer end; a female luer end; a central axis; and an internal cavity comprising a passage connecting a first region and a second region; and a rigid valve member configured to be advanced towards and away from the second region along the central axis of the housing, the rigid valve member comprising an internal passageway and a fluid chamber at one end of the valve member, the fluid chamber having a closed tip and a hole adjacent the closed tip; wherein the medical connector has a first position in which at least a portion of the fluid chamber comprising the hole is positioned in the passage and fluid flow between the internal passageway and the first region is impeded, and wherein the fluid flow between the female luer end and the internal passageway is impeded when the medical connector is in the first position; wherein the medical connector has a second position in which the rigid valve member is advanced towards the first region and fluid communication between the interior of the medical connector and the first region via the hole is enabled, and wherein the fluid flow between the female luer end and the internal passageway is enabled when the medical connector is in the second position; and wherein the passage has a cross-sectional width that is smaller than both a cross-sectional width of the first region and a cross-sectional width of the second region.
Guide plate for the attachment of rails for rail vehicles, - with at least one recess moulded into it from the underside on which the guide plate stands in the assembly position, - with a support surface constructed on the upper side of the guide plate for a spring element (1, 2) envisaged for holding down the rail to be attached, and - with a contact surface provided on one face of the guide plate which extends in the longitudinal direction of the guide plate and on which contact surface the rail to be attached is, in the assembly position, guided laterally, characterised in that on the upper side of the guide plate, at least one reinforcing rib is provided which rises above the support surface and extends crosswise to the contact surface and that the recess moulded into the guide plate from the underside extends into the area of the guide plate in which the reinforcing rib is provided. - with at least one recess moulded into it from the underside on which the guide plate stands in the assembly position, - with a support surface constructed on the upper side of the guide plate for a spring element (1, 2) envisaged for holding down the rail to be attached, and - with a contact surface provided on one face of the guide plate which extends in the longitudinal direction of the guide plate and on which contact surface the rail to be attached is, in the assembly position, guided laterally,
Household appliance (10; 110; 210; 310) with a mains connection socket (12; 112; 212; 312), for plugging in a mains connection line (70; 170) with an appliance plug (72; 172; 272; 372) matching the mains connection socket, wherein the mains connection socket is provided with a seal element (50; 150; 250; 350), which establishes moisture protection between the mains connection socket and the associated appliance plug, characterised in that the mains connection socket has a receiving section and a base section, wherein a contact shaft with a shaft bottom is embodied on the base section, wherein the receiving section is arranged on the end of the base section opposite the shaft bottom, wherein a receiving shaft is embodied in the receiving section, and wherein the seal element has an inner sleeve wall, which forms the opening of the receiving shaft.
A biodegradable polyester film comprising: i) from 75 to 100% by weight, based on the total weight of components i to ii, of a biodegradable polyester based on aliphatic dicarboxylic acids selected from the group consisting of: succinic acid, azelaic acid, sebacic acid, and brassylic acid, and/or aromatic dicarboxylic acids and an aliphatic dihydroxy compound; ii) from 0 to 25% by weight, based on the total weight of components i to ii, of polylactic acid; iii) from 10 to 25% by weight, based on the total weight of components i to v, of calcium carbonate; iv) from 3 to 15% by weight, based on the total weight of components i to v, of talc; v) from 0 to 1% by weight, based on the total weight of components i to v, of a copolymer which contains epoxy groups and is based on styrene, acrylic ester, and/or methacrylic ester; vi) from 0 to 2% by weight, based on the total weight of components i to v, of 2-(4,6-bisbiphenyl-4-yl-1,3,5-triazin-2-yl)-5-(2-ethyl-(n)-hexyloxy)phenol. i) from 75 to 100% by weight, based on the total weight of components i to ii, of a biodegradable polyester based on aliphatic dicarboxylic acids selected from the group consisting of: succinic acid, azelaic acid, sebacic acid, and brassylic acid, and/or aromatic dicarboxylic acids and an aliphatic dihydroxy compound; ii) from 0 to 25% by weight, based on the total weight of components i to ii, of polylactic acid; iii) from 10 to 25% by weight, based on the total weight of components i to v, of calcium carbonate; iv) from 3 to 15% by weight, based on the total weight of components i to v, of talc; v) from 0 to 1% by weight, based on the total weight of components i to v, of a copolymer which contains epoxy groups and is based on styrene, acrylic ester, and/or methacrylic ester; vi) from 0 to 2% by weight, based on the total weight of components i to v, of 2-(4,6-bisbiphenyl-4-yl-1,3,5-triazin-2-yl)-5-(2-ethyl-(n)-hexyloxy)phenol.
A lighting device comprising: - light radiation sources (12a, 12b, 12c, 12d) arranged in a plurality of cells (C1, C2, C3, C4) wherein each cell comprises at least one light radiation source, and - an output screen for receiving light radiation from said light radiation sources (12a, 12b, 12c, 12d), characterized by: - optical elements (18, 20) arranged between said cells (C1, C2, C3, C4) and said screen so as to convey onto said screen with a uniformly distributed intensity the light radiation produced by said light radiation sources (12a, 12b, 12c, 12d), with each point on the screen illuminated by all of the cells (C1, C2, C3, C4), the illumination of said screen resulting from the superimposition of light radiation indi vidually produced by the cells of said plurality (C1, C2, C3, C4). - light radiation sources (12a, 12b, 12c, 12d) arranged in a plurality of cells (C1, C2, C3, C4) wherein each cell comprises at least one light radiation source, and - an output screen for receiving light radiation from said light radiation sources (12a, 12b, 12c, 12d), - optical elements (18, 20) arranged between said cells (C1, C2, C3, C4) and said screen so as to convey onto said screen with a uniformly distributed intensity the light radiation produced by said light radiation sources (12a, 12b, 12c, 12d), with each point on the screen illuminated by all of the cells (C1, C2, C3, C4), the illumination of said screen resulting from the superimposition of light radiation indi vidually produced by the cells of said plurality (C1, C2, C3, C4).
An apparatus for securing a tool to a spindle of a machine in a tool-less manner, said apparatus comprising: an axially-extending body portion having a proximal flange portion and a distal knob portion, said body portion including an axially-extending internal bore; a plurality of radially-extending openings spaced about said body portion and being axially located on said body portion between said flange portion and said knob portion; a ball residing in and movable within each of said openings between a radially outward position and an inward position; an internal plunger residing in and movable within said internal bore between an advanced position and a retracted position; wherein said advanced position provides a first diameter of said plunger adjacent to and in contact with said balls whereby said balls are urged to said radially outward position, and wherein said retracted position provides a second diameter of said plunger adjacent said balls whereby said balls are movable to said inward position. an axially-extending body portion having a proximal flange portion and a distal knob portion, said body portion including an axially-extending internal bore; a plurality of radially-extending openings spaced about said body portion and being axially located on said body portion between said flange portion and said knob portion; a ball residing in and movable within each of said openings between a radially outward position and an inward position; an internal plunger residing in and movable within said internal bore between an advanced position and a retracted position; wherein said advanced position provides a first diameter of said plunger adjacent to and in contact with said balls whereby said balls are urged to said radially outward position, and wherein said retracted position provides a second diameter of said plunger adjacent said balls whereby said balls are movable to said inward position.
A hand-guided ground compacting machine (1, 11), comprising - a drive engine, which is mounted on a machine frame, - a ground compaction device (9, 12) driven by the drive engine, and - a guide bar, characterized in that the drive engine is a liquid gas powered drive engine, that it comprises at least one storage container for liquid gas connected to the drive engine via a piping system, and that a storage container holding means is provided for accommodating and mounting the at least one storage container on the hand-guided ground compacting machine (1, 11), the at least one storage container being replaceably disposed in said storage container holding means. - a drive engine, which is mounted on a machine frame, - a ground compaction device (9, 12) driven by the drive engine, and - a guide bar,
An assay for quantitative evaluation of target site cleavage by one or more CRISPR guide sequences, the assay comprising: introducing up to 20 targets for one or more CRISPR guide sequences into the coding sequence of a fluorescent protein; generating a reporter cell line comprising and expressing a lentiviral reporter system comprising said fluorescent protein; transducing the reporter cell line with CRISPR-Cas vectors targeting said up to 20 targets; and quantifying loss of reporter fluorescence to determine the efficiency with which the one or more guides directed cleavage at said target site in the coding sequence for the fluorescent protein. introducing up to 20 targets for one or more CRISPR guide sequences into the coding sequence of a fluorescent protein; generating a reporter cell line comprising and expressing a lentiviral reporter system comprising said fluorescent protein; transducing the reporter cell line with CRISPR-Cas vectors targeting said up to 20 targets; and quantifying loss of reporter fluorescence to determine the efficiency with which the one or more guides directed cleavage at said target site in the coding sequence for the fluorescent protein.
A mold device (141, 142) having a nested structure, the mold device (141, 142) comprising: a shaft body that is provided on at least one of a first mold (201, 205) and a second mold (202, 206), the first mold (201, 205) and the second mold (202, 206) forming a molding space, the shaft body extruding a molded article (1 to 6, 124, 210, 216) that is molded from a resin injected into the molding space; a ring-shaped elastic member (89, 90) for supporting and sealing the shaft body, an opening of a groove formed in the ring-shaped elastic member (89, 90) along a circumferential direction of the ring-shaped elastic member (89, 90) being oriented toward the molding space, a load being applied on the ring-shaped elastic member (89, 90) to improve adhesion to the shaft body; and an injection portion that is provided on at least one of the first mold (201, 205) and the second mold (202, 206) for injecting a pressurized fluid into the molding space. a shaft body that is provided on at least one of a first mold (201, 205) and a second mold (202, 206), the first mold (201, 205) and the second mold (202, 206) forming a molding space, the shaft body extruding a molded article (1 to 6, 124, 210, 216) that is molded from a resin injected into the molding space; a ring-shaped elastic member (89, 90) for supporting and sealing the shaft body, an opening of a groove formed in the ring-shaped elastic member (89, 90) along a circumferential direction of the ring-shaped elastic member (89, 90) being oriented toward the molding space, a load being applied on the ring-shaped elastic member (89, 90) to improve adhesion to the shaft body; and an injection portion that is provided on at least one of the first mold (201, 205) and the second mold (202, 206) for injecting a pressurized fluid into the molding space.
A method to derive a population of pancreatic endocrine precursor cells from pluripotent stem cells comprising the steps of: a. culturing a population of pluripotent stem cells; b. differentiating the pluripotent stem cells into a population of cells expressing markers characteristic of the definitive endoderm lineage; c. differentiating the cells expressing markers characteristic of the definitive endoderm lineage into a population of primitive gut tube cells; d. differentiating the population of primitive gut tube cells into a population of posterior foregut cells; and e. treating the population of posterior foregut cells with a medium supplemented with a CYP26A inhibitor. a. culturing a population of pluripotent stem cells; b. differentiating the pluripotent stem cells into a population of cells expressing markers characteristic of the definitive endoderm lineage; c. differentiating the cells expressing markers characteristic of the definitive endoderm lineage into a population of primitive gut tube cells; d. differentiating the population of primitive gut tube cells into a population of posterior foregut cells; and e. treating the population of posterior foregut cells with a medium supplemented with a CYP26A inhibitor.