mhurhangee/ep-ind-claims huggingface dataset:
Clock phase recovery apparatus for estimating an estimated clock phase, the clock phase recovery apparatus comprising: a clock estimator configured to estimate a first clock signal and a second clock signal upon the basis of an input signal, the input signal comprising a first sub-signal according to a first optical polarization and a second sub-signal according to a second optical polarization, the first clock signal comprising a first clock magnitude and a first clock phase, the second clock signal comprising a second clock magnitude and a second clock phase; a selector configured to select the first clock phase to form the estimated clock phase if the first clock magnitude is greater than the second clock magnitude, or to select the second clock phase to form the estimated clock phase if the second clock magnitude is greater than the first clock magnitude, wherein the clock estimator comprises a filter bank comprising a plurality of chromatic dispersion filters, each chromatic dispersion filter being configured to filter the input signal by a different predetermined chromatic dispersion value to obtain a plurality of filtered input signals, the clock phase recovery apparatus characterized in that: the clock estimator is configured to estimate a plurality of clock signals upon the basis of the plurality of the filtered input signals, and wherein the selector is configured to select the clock phase or the clock signal which has the greatest clock magnitude among the plurality of estimated clock signals to provide the estimated clock phase. a clock estimator configured to estimate a first clock signal and a second clock signal upon the basis of an input signal, the input signal comprising a first sub-signal according to a first optical polarization and a second sub-signal according to a second optical polarization, the first clock signal comprising a first clock magnitude and a first clock phase, the second clock signal comprising a second clock magnitude and a second clock phase; a selector configured to select the first clock phase to form the estimated clock phase if the first clock magnitude is greater than the second clock magnitude, or to select the second clock phase to form the estimated clock phase if the second clock magnitude is greater than the first clock magnitude, wherein the clock estimator comprises a filter bank comprising a plurality of chromatic dispersion filters, each chromatic dispersion filter being configured to filter the input signal by a different predetermined chromatic dispersion value to obtain a plurality of filtered input signals, the clock phase recovery apparatus characterized in that: the clock estimator is configured to estimate a plurality of clock signals upon the basis of the plurality of the filtered input signals, and wherein the selector is configured to select the clock phase or the clock signal which has the greatest clock magnitude among the plurality of estimated clock signals to provide the estimated clock phase.
A method of provisioning from a first device a Trusted Platform Module coupled to a second device (1 1 0, 1 20, 1 30), comprising: receiving, by the first device, a public portion of an Endorsement Key for the Trusted Platform Module (step 310); verifying, by the first device, authenticity of the Endorsement Key with data from a trusted source (step 320); formatting, by the first device, a TPM_TakeOwnership command for the Trusted Platform Module with temporary authorization values (step 330); encrypting, by the first device, the formatted TPM_TakeOwnership command with the public portion of the Endorsement Key for the Trusted Platform Module; sending the encrypted formatted TPM_TakeOwnership command to the Trusted Platform Module (step 340); receiving, by the first device, a message from the Trusted Platform Module (step 360); verifying, by the first device, that the received message originated with the Trusted Platform Module (step 370); sending, by the first device, a command to reset the Trusted Platform Module's Storage Root Key authorization value to all zeroes (step 380); and using, by the second device, the Trusted Platform Module to generate and use keys. receiving, by the first device, a public portion of an Endorsement Key for the Trusted Platform Module (step 310); verifying, by the first device, authenticity of the Endorsement Key with data from a trusted source (step 320); formatting, by the first device, a TPM_TakeOwnership command for the Trusted Platform Module with temporary authorization values (step 330); encrypting, by the first device, the formatted TPM_TakeOwnership command with the public portion of the Endorsement Key for the Trusted Platform Module; sending the encrypted formatted TPM_TakeOwnership command to the Trusted Platform Module (step 340); receiving, by the first device, a message from the Trusted Platform Module (step 360); verifying, by the first device, that the received message originated with the Trusted Platform Module (step 370); sending, by the first device, a command to reset the Trusted Platform Module's Storage Root Key authorization value to all zeroes (step 380); and using, by the second device, the Trusted Platform Module to generate and use keys.
A fuel cell device comprising an elongate substrate having a length that is the greatest dimension whereby the elongate substrate exhibits thermal expansion along a dominant axis that is coextensive with the length, a reaction zone along a first portion of the length configured to be exposed to a heat source to heat the reaction zone to an operating reaction temperature, at least one cold zone along a second portion of the length configured to not be exposed to the heat source to remain at a low temperature below the operating reaction temperature when the reaction zone is heated, at least one fuel passage in the elongate substrate extending from the at least one cold zone to the reaction zone, and having an associated anode in the reaction zone, at least one oxidizer passage in the elongate substrate extending from the at least one cold zone to the reaction zone, and having an associated cathode in the reaction zone positioned in opposing relation to the anode, and an electrolyte disposed between the opposing anode and cathode (24, 26) in the reaction zone, the anode and cathode (24, 26) each having an electrical pathway extending to an exterior surface of the at least one cold zone for electrical connection at the low temperature below the operating reaction temperature, characterized in that the electrolyte includes at least a nano-portion comprising a ceramic material sintered from a nano-sized powder.
Decoding method for a Manchester-encoded signal, wherein a moving data average having a data average time is formed for the Manchester-encoded signal and a decoded data signal is formed from the moving data average using a data comparator and is made available, characterised in that a moving end-of-transmission average having an EOT average time is formed for the Manchester-encoded signal, in that the EOT average time is longer than the data average time, in that an EOT signal is formed from the moving EOT average using an EOT comparator and is made available, in that the EOT comparator outputs the EOT signal depending on whether a result exceeds or falls below at least one EOT threshold (31, 32), in that the data comparator compares the moving data average with at least one data threshold (12, 13) and outputs the decoded data signal depending on whether the result exceeds or falls below the at least one data threshold (12, 13), the at least one data threshold (12, 13) includes a lower data threshold and an upper data threshold and the data comparator outputs the decoded data signal depending on whether a result exceeds the upper data threshold and falls below the lower data threshold, and in that by means of a control connection formed between the EOT comparator and the data comparator, the at least one data threshold (12, 13) in the data comparator is reset to standard values if an end of transmission is detected in the EOT comparator, and/or in that by means of a control connection formed between the EOT comparator and the moving-type data averaging unit and/or a moving-type clock averaging unit, the data averaging unit and/or the clock averaging unit is/are reset if an end of transmission is detected in the EOT comparator.
Level monitoring system with at least an electrode (4, 24, 41, 51) designed to monitor the level of a medium flowing through a tube, characterized in that the electrode (4, 24, 41, 51) has an integrated temperature sensor (5, 25), wherein the level monitoring system has an evaluation unit, which is designed to monitor the filling degree of the tube, and wherein said evaluation unit emits a warning signal if the filling degree falls below a limit value, particularly a filling degree of less than 55 % of the tube diameter, wherein the electrode (4, 24, 41, 51) has an electrode head (15, 35, 45, 55), said electrode head (15, 35, 45, 55) having a front face (12, 32, 42, 52) with a center point and at least a first peripheral zone spaced radially from said point, wherein at least the first peripheral zone defines a first arc curved in the direction of the medium or a parabola curved in the direction of the medium, wherein the electrode head (15, 35, 45, 55) is formed in a rotationally symmetric manner in relation to a longitudinal axis of the electrode, characterized in that the center point of the front face (12, 32, 42, 52) is spaced at a distance from the arc or the parabola in the direction of the medium.
A video encoding device using weighted prediction comprising: a predicted image generating unit configured to generate a predicted image of a target block by at least multiplying a predicted value by a weighting factor, the predicted value being compensated based on a motion vector; and an index setting unit configured to set information of a reference image, the weighting factor, and a denominator representing a fixed point precision of the weighting factor, characterized in that the encoding device further comprises: an index reconfiguring unit configured to derive a reference value of the weighting factor based on the denominator and derive a difference value between the weighting factor and the reference value, wherein the reference value is derived by left shift of "1" by at least one binary digit specified by the denominator; and an entropy encoding unit configured to encode the denominator for the weighting factor and the difference value. a predicted image generating unit configured to generate a predicted image of a target block by at least multiplying a predicted value by a weighting factor, the predicted value being compensated based on a motion vector; and an index setting unit configured to set information of a reference image, the weighting factor, and a denominator representing a fixed point precision of the weighting factor, characterized in that the encoding device further comprises: an index reconfiguring unit configured to derive a reference value of the weighting factor based on the denominator and derive a difference value between the weighting factor and the reference value, wherein the reference value is derived by left shift of "1" by at least one binary digit specified by the denominator; and an entropy encoding unit configured to encode the denominator for the weighting factor and the difference value. an index reconfiguring unit configured to derive a reference value of the weighting factor based on the denominator and derive a difference value between the weighting factor and the reference value, wherein the reference value is derived by left shift of "1" by at least one binary digit specified by the denominator; and an entropy encoding unit configured to encode the denominator for the weighting factor and the difference value.
A nuclear fuel assembly comprising: a top nozzle; a bottom nozzle; a plurality of elongated guide thimbles extending axially between and attached to the top nozzle and the bottom nozzle, at least some of the plurality of guide thimbles having a tubular sheath that extends substantially the entire length of the corresponding guide thimble with a lower end of the sheath capped by a lower end plug having an aperture extending axially there through; and a tube-in-tube dashpot having an axially extending sidewall is disposed within a lower portion of the tubular sheath with an opening in the side wall of the dashpot aligned with an opening in the tubular sheath, such that there is a through hole through the side of the guide thimble, wherein the opening in one of the sidewall of the dashpot or the tubular sheath is oblong extending partially around a circumference of the one of the sidewall or the tubular sheath with a greater diameter of the oblong opening extending in the circumferential direction. a top nozzle; a bottom nozzle; a plurality of elongated guide thimbles extending axially between and attached to the top nozzle and the bottom nozzle, at least some of the plurality of guide thimbles having a tubular sheath that extends substantially the entire length of the corresponding guide thimble with a lower end of the sheath capped by a lower end plug having an aperture extending axially there through; and a tube-in-tube dashpot having an axially extending sidewall is disposed within a lower portion of the tubular sheath with an opening in the side wall of the dashpot aligned with an opening in the tubular sheath, such that there is a through hole through the side of the guide thimble, wherein the opening in one of the sidewall of the dashpot or the tubular sheath is oblong extending partially around a circumference of the one of the sidewall or the tubular sheath with a greater diameter of the oblong opening extending in the circumferential direction.
A clockwork module (100; 200; 300; 400) including: - a mobile part (11; 21; 31; 41) including a first functional part and/or a second functional part (11a, 11b; 21a, 21b; 31a, 31b; 41a, 41b) and an arbor (15; 25; 35; 45), the arbor having a first axis (151; 251; 351; 451), - a spring (13; 23; 33; 43), notably a helical spring, - a casing (14; 24; 34; 44) including a housing (140; 240; 340; 440) having a second axis (141; 241; 341; 441) of translation and/or of rotation of the mobile part (11; 21; 31; 41), - a first guide surface (14a, 140a; 24a, 240a; 34a, 340a; 44a, 440a) in the housing (140; 240; 340; 440), - a first stop (140b; 240b; 340b; 440b) in the housing, - a second stop (16b; 26b; 36b; 46b) arranged on the mobile part (11; 21; 31; 41), the arbor (15; 25; 35; 45) being guided by at least the first guide surface, the spring being arranged, notably having been pre-stressed, in the housing between the first and second stops, the first functional part (11a, 21a, 31a, 41a) including or being a member acting by translation and/or rotation about the second axis (141; 241; 341; 441), the mobile part being mobile in translation, the spring ensuring a return of the mobile part to an axial idle position. - a mobile part (11; 21; 31; 41) including a first functional part and/or a second functional part (11a, 11b; 21a, 21b; 31a, 31b; 41a, 41b) and an arbor (15; 25; 35; 45), the arbor having a first axis (151; 251; 351; 451), - a spring (13; 23; 33; 43), notably a helical spring, - a casing (14; 24; 34; 44) including a housing (140; 240; 340; 440) having a second axis (141; 241; 341; 441) of translation and/or of rotation of the mobile part (11; 21; 31; 41), - a first guide surface (14a, 140a; 24a, 240a; 34a, 340a; 44a, 440a) in the housing (140; 240; 340; 440), - a first stop (140b; 240b; 340b; 440b) in the housing, - a second stop (16b; 26b; 36b; 46b) arranged on the mobile part (11; 21; 31; 41),
A material comprising at least one zeolite shaped with a binder formulation comprising at least one hydraulic binder in which said binder formulation also comprises at least one organic adjuvant selected from cellulose derivatives, polyethylene glycols, monocarboxylic aliphatic acids, alkylated aromatic compounds, sulphonic acid salts, fatty acids, polyvinyl pyrrolidone, polyvinyl alcohol, methylcellulose, polyacrylates, polymethacrylates, polyisobutene, polytetrahydrofuran, starch, polysaccharide type polymers, scleroglucan, hydroxyethylated cellulose type derivatives, carboxymethylcellulose, lignosulphonates and galactomannan derivatives, used alone or as a mixture,. in which said material has the following composition: • 10% to 95% by weight of at least one zeolite, • 1% to 20% by weight of at least one hydraulic binder, • 0% to 5% by weight of at least one source of silica, • 1% to 7% by weight of at least one organic adjuvant, the percentages by weight being expressed with respect to the total weight of said material and the sum of the contents of each of the compounds of said material being equal to 100%. • 10% to 95% by weight of at least one zeolite, • 1% to 20% by weight of at least one hydraulic binder, • 0% to 5% by weight of at least one source of silica, • 1% to 7% by weight of at least one organic adjuvant, the percentages by weight being expressed with respect to the total weight of said material and the sum of the contents of each of the compounds of said material being equal to 100%.
A cushioning product comprising: a stock material having overlapping edge portions, the overlapping edge portions having at least a first set of ridges and at least a second set of ridges, each of the sets of ridges including a plurality of longitudinally spaced apart ridges, with the at least first set of ridges also being laterally spaced apart from the at least second set of ridges. a stock material having overlapping edge portions, the overlapping edge portions having at least a first set of ridges and at least a second set of ridges, each of the sets of ridges including a plurality of longitudinally spaced apart ridges, with the at least first set of ridges also being laterally spaced apart from the at least second set of ridges.
Apparatus for treating cardiac tissue, comprising: an electrode adapted to apply an electrical signal that induces an electric field sequence in in-vivo cardiac tissue; a sensor configured for sensing an effect indicative of a change in phosphorylation level of proteins in the cardiac tissue by detecting a modification of a sensed parameter on a time scale of minutes or seconds; a controller operable to apply the electrical signal to the electrode and configured for receiving measurements from said sensor, the controller including a memory having stored therein an electrical signal parameter, wherein the controller is configured for selecting the electrical signal parameter in response to measurements received from said sensor, such that the electric field sequence resulting from application of the electrical signal to the electrode according to the electrical signal parameter has an immediate affirmative modifying effect on phosphorylation of proteins in the cardiac tissue. an electrode adapted to apply an electrical signal that induces an electric field sequence in in-vivo cardiac tissue; a sensor configured for sensing an effect indicative of a change in phosphorylation level of proteins in the cardiac tissue by detecting a modification of a sensed parameter on a time scale of minutes or seconds; a controller operable to apply the electrical signal to the electrode and configured for receiving measurements from said sensor, the controller including a memory having stored therein an electrical signal parameter, wherein the controller is configured for selecting the electrical signal parameter in response to measurements received from said sensor, such that the electric field sequence resulting from application of the electrical signal to the electrode according to the electrical signal parameter has an immediate affirmative modifying effect on phosphorylation of proteins in the cardiac tissue.
Fluid circulation valve, said valve comprising a housing and a body for fluid circulation, said body being situated at least partially within said housing, said body being fixed to the housing and having a passage for fluid between said body and said housing, the body comprising a sleeve having said passage, said valve further comprising an electromagnetically actuatable control member, said control member being movable relative to said body to selectively open or close said passage, said body presenting at least locally a tubular configuration at the level of said passage, said control member being capable of sliding along said body at least at the level of said passage, the valve further comprising a return spring for returning said control member to a rest position and a stabilization spring of the control member, said return spring and said stabilization spring being situated on either side of the control member, characterized in that the valve comprises an outlet tube for the fluid, inserted in the housing and in the axial extension of the body, the return spring being around a portion of the sleeve comprising the passage and around the outlet tube.
Procedure for the tamper-proof evaluation of at least one component property of at least one field device (F1, F2) in an installation (A1, A2, A3) used in automation engineering, said procedure comprising: - Creation of an evaluation concerning the component property of the field device (F1, F2) by at least one installation operator, wherein the evaluation assigns the condition "applies" or "does not apply" to each component property; and - Transmission of the evaluation that is created to a first service platform and storage of the implemented evaluation in the first service platform, wherein the first service platform is operated decentrally with the aid of a distributed register or blockchain technology, and consists of a multitude of participant nodes (TK1, TK2, TK3, TK4), wherein the participant nodes (TK1, TK2, TK3, TK4) each have at least a database, and - Creation of data blocks by the participant nodes (TK1, TK2, TK3, TK4), wherein a data block (BL1, BL2, BL3) contains at least one evaluation linked with the field device type of an evaluated field device (F1, F2), wherein a multitude of evaluations of different field devices (F1, F2) are contained in the multitude of participant nodes (TK1, TK2, TK3, TK4). - Creation of an evaluation concerning the component property of the field device (F1, F2) by at least one installation operator, wherein the evaluation assigns the condition "applies" or "does not apply" to each component property; and - Transmission of the evaluation that is created to a first service platform and storage of the implemented evaluation in the first service platform, wherein the first service platform is operated decentrally with the aid of a distributed register or blockchain technology, and consists of a multitude of participant nodes (TK1, TK2, TK3, TK4), wherein the participant nodes (TK1, TK2, TK3, TK4) each have at least a database, and - Creation of data blocks by the participant nodes (TK1, TK2, TK3, TK4), wherein a data block (BL1, BL2, BL3) contains at least one evaluation linked with the field device type of an evaluated field device (F1, F2), wherein a multitude of evaluations of different field devices (F1, F2) are contained in the multitude of participant nodes (TK1, TK2, TK3, TK4).