mhurhangee/ep-ind-claims huggingface dataset:
A method of application layer-forward error correction, in the following also referred to as AL-FEC, using MPEG Media transport protocol performed by an MMT middle box (520, 539), the method comprising: receiving a bounded FEC configuration setting from an MMT sending entity or another MMT middle box (520, 539), wherein the bounded FEC configuration setting belongs to an FEC configuration group comprising at least one FEC configuration setting having a bounded-number of stages or layers of FEC coding structure, and wherein the bounded-number is a positive integer greater than 1; and if the bounded FEC configuration setting corresponds to one FEC configuration setting having the bounded-number of stages or layers of FEC coding structure: receiving one or more FEC source packets and FEC repair packets from the MMT sending entity or said another MMT middle box (520, 539); characterized by adding one FEC stage or layer to or deleting one FEC stage or layer from said one or more FEC source packets and FEC repair packets to generate one or more modified MMT packets at the MMT middle box using a range of FEC schemes having a target number of stages or layers of FEC coding structure from 1 to the bounded-number; and sending said modified MMT packets to an MMT receiving entity or another MMT middle box (520, 539). receiving a bounded FEC configuration setting from an MMT sending entity or another MMT middle box (520, 539), wherein the bounded FEC configuration setting belongs to an FEC configuration group comprising at least one FEC configuration setting having a bounded-number of stages or layers of FEC coding structure, and wherein the bounded-number is a positive integer greater than 1; and if the bounded FEC configuration setting corresponds to one FEC configuration setting having the bounded-number of stages or layers of FEC coding structure: receiving one or more FEC source packets and FEC repair packets from the MMT sending entity or said another MMT middle box (520, 539); characterized by adding one FEC stage or layer to or deleting one FEC stage or layer from said one or more FEC source packets and FEC repair packets to generate one or more modified MMT packets at the MMT middle box using a range of FEC schemes having a target number of stages or layers of FEC coding structure from 1 to the bounded-number; and sending said modified MMT packets to an MMT receiving entity or another MMT middle box (520, 539). receiving one or more FEC source packets and FEC repair packets from the MMT sending entity or said another MMT middle box (520, 539); characterized by adding one FEC stage or layer to or deleting one FEC stage or layer from said one or more FEC source packets and FEC repair packets to generate one or more modified MMT packets at the MMT middle box using a range of FEC schemes having a target number of stages or layers of FEC coding structure from 1 to the bounded-number; and sending said modified MMT packets to an MMT receiving entity or another MMT middle box (520, 539).
A valve heat element for the controlled delivery and heating of an air flow, comprising - a connection housing for mounting in a building wall and for feeding an electrical power cable, and - a heat element housing for receiving an electrical heat element, wherein the connection housing has a conduit separated from the air flow, in which a connection strip is arranged for connection to the power cable, wherein a coupling part for the connection of an air duct is located at the connection housing, and wherein the connection housing can be joined to the heat element housing. - a connection housing for mounting in a building wall and for feeding an electrical power cable, and - a heat element housing for receiving an electrical heat element, wherein the connection housing has a conduit separated from the air flow, in which a connection strip is arranged for connection to the power cable, wherein a coupling part for the connection of an air duct is located at the connection housing, and wherein the connection housing can be joined to the heat element housing. wherein the connection housing has a conduit separated from the air flow, in which a connection strip is arranged for connection to the power cable, wherein a coupling part for the connection of an air duct is located at the connection housing, and wherein the connection housing can be joined to the heat element housing.
A load detector (100, 200) for detecting a load of a subject on a bed having a caster, the load detector (100, 200) comprising: a plate portion (1, 201) which is one-fold and which is to be supported above an installation surface, on which the load detector (100, 200) is installed, separately from the installation surface; and a slope portion (SL, SL1-SL4) which is provided around the plate portion (1, 201) and which is inclined relative to a surface of the plate portion (1, 201) so as to extend between the surface of the plate portion (1, 201) and the installation surface, wherein the plate portion (1, 201) includes: a peripheral part (13, 213); a placing part (11, 211) on which the caster is to be placed, at a center of the plate portion and separated from the peripheral part (13, 213); and a linking part (12, 212) which extends between the placing part (11, 211) and the peripheral part (13, 213), the load detector (100, 200) further comprising a strain sensor attached to the linking part (12, 212), wherein the slope portion (SL, SL1-SL4) includes at least two pairs of slopes each including a pair of slopes opposed to each other such that the placing part (11, 211) is interposed between the pair of slopes. a plate portion (1, 201) which is one-fold and which is to be supported above an installation surface, on which the load detector (100, 200) is installed, separately from the installation surface; and a slope portion (SL, SL1-SL4) which is provided around the plate portion (1, 201) and which is inclined relative to a surface of the plate portion (1, 201) so as to extend between the surface of the plate portion (1, 201) and the installation surface, wherein the plate portion (1, 201) includes: a peripheral part (13, 213); a placing part (11, 211) on which the caster is to be placed, at a center of the plate portion and separated from the peripheral part (13, 213); and a linking part (12, 212) which extends between the placing part (11, 211) and the peripheral part (13, 213), a peripheral part (13, 213); a placing part (11, 211) on which the caster is to be placed, at a center of the plate portion and separated from the peripheral part (13, 213); and a linking part (12, 212) which extends between the placing part (11, 211) and the peripheral part (13, 213), the load detector (100, 200) further comprising a strain sensor attached to the linking part (12, 212), wherein the slope portion (SL, SL1-SL4) includes at least two pairs of slopes each including a pair of slopes opposed to each other such that the placing part (11, 211) is interposed between the pair of slopes.
Brewing device for fermenting a liquid brewing material comprising: - a liquid tank, in particular a fermentation tank, for receiving the liquid brewing material, - a cooling device for cooling the liquid brewing material comprising: • a cooling unit for cooling a refrigerant, • a continuous-flow cooler for cooling the liquid brewing material in the liquid tank by means of the cooled refrigerant, and • refrigerant pipes comprising: ∗ an entry pipe having a first connection section for connecting a pipe for guiding refrigerant to the cooling unit, ∗ a cooling pipe for guiding the cooled refrigerant from the cooling unit to the continuous-flow cooler and ∗ an exit pipe having a second connection section for connecting a pipe for exhausting the refrigerant from the continuous-flow cooler, wherein the liquid tank and the cooling device are provided as a connected transportable unit. - a liquid tank, in particular a fermentation tank, for receiving the liquid brewing material, - a cooling device for cooling the liquid brewing material comprising: • a cooling unit for cooling a refrigerant, • a continuous-flow cooler for cooling the liquid brewing material in the liquid tank by means of the cooled refrigerant, and • refrigerant pipes comprising: ∗ an entry pipe having a first connection section for connecting a pipe for guiding refrigerant to the cooling unit, ∗ a cooling pipe for guiding the cooled refrigerant from the cooling unit to the continuous-flow cooler and ∗ an exit pipe having a second connection section for connecting a pipe for exhausting the refrigerant from the continuous-flow cooler, wherein the liquid tank and the cooling device are provided as a connected transportable unit. • a cooling unit for cooling a refrigerant, • a continuous-flow cooler for cooling the liquid brewing material in the liquid tank by means of the cooled refrigerant, and • refrigerant pipes comprising: ∗ an entry pipe having a first connection section for connecting a pipe for guiding refrigerant to the cooling unit, ∗ a cooling pipe for guiding the cooled refrigerant from the cooling unit to the continuous-flow cooler and ∗ an exit pipe having a second connection section for connecting a pipe for exhausting the refrigerant from the continuous-flow cooler, ∗ an entry pipe having a first connection section for connecting a pipe for guiding refrigerant to the cooling unit, ∗ a cooling pipe for guiding the cooled refrigerant from the cooling unit to the continuous-flow cooler and ∗ an exit pipe having a second connection section for connecting a pipe for exhausting the refrigerant from the continuous-flow cooler,
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: receiving configuration information for configuring a third cell in which Physical Uplink Control Channel, PUCCH, resource is not configured; and transmitting a Hybrid Automatic Repeat request, HARQ, feedback of the third cell on a first cell or a second cell, the method characterized in that, the first cell is not a special cell, SpCell, of a base station, and the second cell is a SpCell, wherein a special cell, SpCell, is a serving cell supporting PUCCH transmission and contention based random access, each of the first and second cells is configured with PUCCH resource, and the HARQ feedback is transmitted on the first cell when an indication indicating that the HARQ feedback is to be sent on the first cell is received in the configuration information, and the HARQ feedback is transmitted on the second cell when the indication is not received. receiving configuration information for configuring a third cell in which Physical Uplink Control Channel, PUCCH, resource is not configured; and transmitting a Hybrid Automatic Repeat request, HARQ, feedback of the third cell on a first cell or a second cell, the method characterized in that, the first cell is not a special cell, SpCell, of a base station, and the second cell is a SpCell, wherein a special cell, SpCell, is a serving cell supporting PUCCH transmission and contention based random access, each of the first and second cells is configured with PUCCH resource, and the HARQ feedback is transmitted on the first cell when an indication indicating that the HARQ feedback is to be sent on the first cell is received in the configuration information, and the HARQ feedback is transmitted on the second cell when the indication is not received.
Chip card comprising - a card body consisting of one or more layers, of which at least one layer is a metal layer, - an integrated circuit and - a transponder coil coupled with the integrated circuit, the transponder coil having windings (4a, 4b, 4c) and interstices (5a, 5b) between the windings (4a, 4b, 4c), wherein the windings (4a, 4b, 4c) of the transponder coil are formed by the at least one metal layer, the interstices (5a, 5b) between the windings (4a, 4b, 4c) being filled with insulating material, characterized in that the card body possesses two mutually opposite main faces, and with at least one of the main faces being formed by the at least one metal layer and being covered over its full area with a transparent or translucent top layer which prevents coupling between the fingers of a user and the windings (4a, 4b, 4c) of the transponder coil. - a card body consisting of one or more layers, of which at least one layer is a metal layer, - an integrated circuit and - a transponder coil coupled with the integrated circuit, the transponder coil having windings (4a, 4b, 4c) and interstices (5a, 5b) between the windings (4a, 4b, 4c), wherein the windings (4a, 4b, 4c) of the transponder coil are formed by the at least one metal layer, the interstices (5a, 5b) between the windings (4a, 4b, 4c) being filled with insulating material, characterized in that the card body possesses two mutually opposite main faces, and with at least one of the main faces being formed by the at least one metal layer and being covered over its full area with a transparent or translucent top layer which prevents coupling between the fingers of a user and the windings (4a, 4b, 4c) of the transponder coil.
Drill bit in cemented steel, characterized in that the drill bit is in a steel whose composition in weight percentages is: - 0.1% ≤ C ≤ 0.15%; - 0.8% ≤ Mn ≤ 2%; - 1% ≤ Cr ≤ 2.5%; - 0.2% ≤ Mo ≤ 0.6%; - trace elements ≤ Si ≤ 0.35%; - trace elements ≤ Ni ≤ 0.7%, - trace elements ≤ B ≤ 0.005%; - trace elements ≤ Ti ≤ 0.1%, - trace elements ≤ N ≤ 0.01% if 0.0005 % ≤ B ≤ 0.005%, and trace elements ≤ N ≤ 0.02 % if trace elements ≤ B ≤ 0.0005 %; - trace elements ≤ Al ≤ 0.1%; - trace elements ≤ V ≤ 0.3%; - trace elements ≤ P ≤ 0.025%; - trace elements ≤ Cu ≤ 1%, preferably ≤ 0.6%; - trace elements ≤ S ≤ 0.1%; the remainder being iron and impurities resulting from production and it has undergone cementation. - 0.1% ≤ C ≤ 0.15%; - 0.8% ≤ Mn ≤ 2%; - 1% ≤ Cr ≤ 2.5%; - 0.2% ≤ Mo ≤ 0.6%; - trace elements ≤ Si ≤ 0.35%; - trace elements ≤ Ni ≤ 0.7%, - trace elements ≤ B ≤ 0.005%; - trace elements ≤ Ti ≤ 0.1%, - trace elements ≤ N ≤ 0.01% if 0.0005 % ≤ B ≤ 0.005%, and trace elements ≤ N ≤ 0.02 % if trace elements ≤ B ≤ 0.0005 %; - trace elements ≤ Al ≤ 0.1%; - trace elements ≤ V ≤ 0.3%; - trace elements ≤ P ≤ 0.025%; - trace elements ≤ Cu ≤ 1%, preferably ≤ 0.6%; - trace elements ≤ S ≤ 0.1%;
A fault tolerant sensor measurement system comprising: a sensor (22a - 22n) having a primary winding (24a - 24n) and at least one secondary winding (26a - 26n); a wiring harness operably connected to the sensor (22a - 22n); and a controller operably connected to the wiring harness, the controller configured to: generate a primary excitation signal; transmit the primary excitation signal to the sensor (22a - 22n); measure a sensor signal from the at least one secondary winding (26a - 26n); and characterized by further being configured to: monitor a primary return line operating characteristic; determine a compensation for the primary excitation signal based on the operating characteristic; and adjust the primary excitation signal based on the compensation. a sensor (22a - 22n) having a primary winding (24a - 24n) and at least one secondary winding (26a - 26n); a wiring harness operably connected to the sensor (22a - 22n); and a controller operably connected to the wiring harness, the controller configured to: generate a primary excitation signal; transmit the primary excitation signal to the sensor (22a - 22n); generate a primary excitation signal; transmit the primary excitation signal to the sensor (22a - 22n); measure a sensor signal from the at least one secondary winding (26a - 26n); and characterized by further being configured to: monitor a primary return line operating characteristic; determine a compensation for the primary excitation signal based on the operating characteristic; and adjust the primary excitation signal based on the compensation. monitor a primary return line operating characteristic; determine a compensation for the primary excitation signal based on the operating characteristic; and adjust the primary excitation signal based on the compensation.
Device for determining the position of objects in the two-dimensional space with a first dimension and a second dimension whose direction vector is orthogonal to the direction vector of the first dimension, comprising at least one transmitter with at least one transmitting antenna and an imaging receiver circuit with at least one receiving antenna array, Rx array, with receiving antenna lines for scanning the first dimension by means of digital beam forming, wherein the receiving antenna array comprises a linear array, a Sparse array or an array with enlarged aperture, and wherein the receiving antenna lines of the receiving antenna array of the receiver circuit are arranged in the first dimension according to a curve function or according to the contour of a two-dimensional geometric object and are spread out in the second dimension, wherein the minimum number of discrete positions, Pos 2D, in the second dimension is defined by the number of receiving antenna lines N RxANT according to N Pos, 2 D ≥ N R × ANT and is ≥3, characterized in that the arrangement of the receiving antenna lines is defined by a random function, wherein the distance of the maximum deviation from the mean value in the second dimension is predetermined.
An optical system comprising: (a) a light-guide optical element formed from transparent material and having mutually-parallel first and second major external surfaces for guiding light by internal reflection; (b) a projector configured to project illumination corresponding to a collimated image from an aperture, the illumination exiting said aperture with a chief ray defining an optical axis of said projector and with an angular field about the chief ray; (c) a coupling prism attached to said first major external surface of said LOE, said coupling prism providing at least part of an image injection surface angled obliquely to said major external surfaces, said projector being associated with said image injection surface and oriented such that the chief ray and the angular field about the chief ray are injected through said image injection surface at angles of incidence relative to said major external surfaces greater than a critical angle for internal reflection at said major external surfaces; and (d) a reflective polarizing beam splitter deployed at an interface between said major external surface and said coupling prism parallel to said major external surfaces, at least part of the illumination being incident on said beam splitter with a first polarization and being transmitted by said beam splitter from said coupling prism into said LOE, light corresponding to a conjugate image of the collimated image and having a second polarization incident on said beam splitter from within said LOE being reflected from said beam splitter so as to propagate within said LOE by internal reflection. (a) a light-guide optical element formed from transparent material and having mutually-parallel first and second major external surfaces for guiding light by internal reflection; (b) a projector configured to project illumination corresponding to a collimated image from an aperture, the illumination exiting said aperture with a chief ray defining an optical axis of said projector and with an angular field about the chief ray; (c) a coupling prism attached to said first major external surface of said LOE, said coupling prism providing at least part of an image injection surface angled obliquely to said major external surfaces, said projector being associated with said image injection surface and oriented such that the chief ray and the angular field about the chief ray are injected through said image injection surface at angles of incidence relative to said major external surfaces greater than a critical angle for internal reflection at said major external surfaces; and (d) a reflective polarizing beam splitter deployed at an interface between said major external surface and said coupling prism parallel to said major external surfaces, at least part of the illumination being incident on said beam splitter with a first polarization and being transmitted by said beam splitter from said coupling prism into said LOE, light corresponding to a conjugate image of the collimated image and having a second polarization incident on said beam splitter from within said LOE being reflected from said beam splitter so as to propagate within said LOE by internal reflection.
A method for detecting the presence of a target nucleobase subunit in a nucleic acid polymer, comprising: (a) selectively modifying a target nucleobase subunit of a pre-analyte nucleic acid polymer to produce a nucleic acid polymer analyte with an abasic site, wherein selectively modifying the target nucleobase subunit comprises contacting the target nucleobase subunit with an agent that selectively creates a structural change in the target nucleobase to produce a modified target subunit and subsequently contacting the pre-analyte nucleic acid polymer with an error correction enzyme to convert the modified subunit to an abasic site; (b) translocating the nucleic acid polymer analyte comprising the abasic site from a first conductive liquid medium to a second conductive liquid medium through a nanopore, wherein the nanopore provides liquid communication between the first conductive liquid medium and the second conductive liquid medium; (c) measuring an ion current between the first conductive liquid medium and the second conductive liquid medium as the nucleic acid polymer analyte passes through the nanopore, wherein the abasic site results in an ion current that is measurably different than an ion current that would have been observed for an unmodified target nucleobase subunit in the nucleic acid polymer analyte; and (d) detecting the abasic site in the nucleic acid polymer analyte based on the measurably different ion current, wherein presence of the abasic site indicates the presence of the target nucleobase in the pre-analyte nucleic acid polymer. (a) selectively modifying a target nucleobase subunit of a pre-analyte nucleic acid polymer to produce a nucleic acid polymer analyte with an abasic site, wherein selectively modifying the target nucleobase subunit comprises contacting the target nucleobase subunit with an agent that selectively creates a structural change in the target nucleobase to produce a modified target subunit and subsequently contacting the pre-analyte nucleic acid polymer with an error correction enzyme to convert the modified subunit to an abasic site; (b) translocating the nucleic acid polymer analyte comprising the abasic site from a first conductive liquid medium to a second conductive liquid medium through a nanopore, wherein the nanopore provides liquid communication between the first conductive liquid medium and the second conductive liquid medium; (c) measuring an ion current between the first conductive liquid medium and the second conductive liquid medium as the nucleic acid polymer analyte passes through the nanopore, wherein the abasic site results in an ion current that is measurably different than an ion current that would have been observed for an unmodified target nucleobase subunit in the nucleic acid polymer analyte; and (d) detecting the abasic site in the nucleic acid polymer analyte based on the measurably different ion current, wherein presence of the abasic site indicates the presence of the target nucleobase in the pre-analyte nucleic acid polymer.