mhurhangee/ep-ind-claims huggingface dataset:
A switch comprising a control system, a first manipulating mechanism, and a second manipulating mechanism, characterized in that: the control system, emits an operating instruction to the second manipulating mechanism when a wire works normally, the operating instruction being configured for instructing the second manipulating mechanism to perform an opening action or a closing action; the control system emits a first action instruction to the first manipulating mechanism and a second action instruction to the second manipulating mechanism, respectively, when the wire fails; and wherein the first action instruction is configured for instructing the first manipulating mechanism to perform a first action; the second action instruction is configured for instructing the second manipulating mechanism to perform a second action, a cooperative action between the first manipulating mechanism and the second manipulating mechanism implements redundancy of switch operating; and a time taken by the first manipulating mechanism to implement the first action is different from a time taken by the second manipulating mechanism to implement the second action. the control system, emits an operating instruction to the second manipulating mechanism when a wire works normally, the operating instruction being configured for instructing the second manipulating mechanism to perform an opening action or a closing action; the control system emits a first action instruction to the first manipulating mechanism and a second action instruction to the second manipulating mechanism, respectively, when the wire fails; and wherein the first action instruction is configured for instructing the first manipulating mechanism to perform a first action; the second action instruction is configured for instructing the second manipulating mechanism to perform a second action, a cooperative action between the first manipulating mechanism and the second manipulating mechanism implements redundancy of switch operating; and a time taken by the first manipulating mechanism to implement the first action is different from a time taken by the second manipulating mechanism to implement the second action.
Mixing device having a stirring element comprising: - a container for accommodating fluids and/or solids; - at least one rotatable stirring element for mixing the fluids and/or solids; - at least one bearing element for mounting the stirring element, wherein the bearing element is a bearing rod that protrudes into an inner space of the container and that can be inserted at least partially into the stirring element to work as a pivot bearing; wherein the stirring element comprises a base body and a plurality of blade elements which are arranged on the base body and configured to mix the fluids and/or solids in the container by rotation of the stirring element, wherein the base body comprises, on a lateral surface of the base body, at least one pair of pole protrusions that are arranged on opposite sides of the base body, and wherein the stirring element comprises at least one non-permanently magnetized element, so that the stirring element can be set in rotation by reluctance forces induced from outside, wherein at least in the pole protrusions in each case one of the non-permanently magnetized elements is arranged, characterized in that at least one bearing rod-ball bearing is inserted between the bearing rod and the base body and/or the blade elements. - a container for accommodating fluids and/or solids; - at least one rotatable stirring element for mixing the fluids and/or solids; - at least one bearing element for mounting the stirring element, wherein the bearing element is a bearing rod that protrudes into an inner space of the container and that can be inserted at least partially into the stirring element to work as a pivot bearing;
A composition comprising albumin-containing nanoparticle/antibody complexes, wherein the complex comprises: (a) a nanoparticle formulation that combines paclitaxel with human albumin; and (b) an antibody, wherein the antibody is an anti-VEGF polypeptide antibody, trastuzumab or rituximab. (a) a nanoparticle formulation that combines paclitaxel with human albumin; and (b) an antibody, wherein the antibody is an anti-VEGF polypeptide antibody, trastuzumab or rituximab.
Method in a multiple antenna wireless communication system, said wireless communication system comprising at least one transmit node and at least one receive node, said method comprising the steps of: - signalling by said receive node at least one first transmission rank r to said transmit node, where 1 ≤ r ≤ R, wherein R is a maximum available rank for a transmission between said transmit node and said receive node, and wherein at least one predefined precoding matrix corresponds to said first transmission rank r; - determining by said transmit node a second transmission rank r' for transmitting data from said transmit node to said receive node, where 1 ≤ r' ≤ R, - defining at least two subsets of precoding matrices for at least one of said at least one first transmission rank r; - selecting one of said at least two subsets of precoding matrices based on a channel quality estimate for a radio channel between said transmit node and said receive node; and - signalling said selected one subset of precoding matrices, wherein said selected one subset of precoding matrices is associated with said at least one predefined precoding matrix corresponding to said at least one first transmission rank r characterised by - determining said at least two subsets of precoding matrices based on one or more criterions in the group comprising: antenna setup at said transmit node, antenna gain imbalance, and matrix distance metric and wherein the average channel quality indicator, CQI, or signal to interference and noise ratio, SINR, for the selected one subset of precoding matrices is higher than the average CQI or SINR for the other defined subsets of precoding matrices. - signalling by said receive node at least one first transmission rank r to said transmit node, where 1 ≤ r ≤ R, wherein R is a maximum available rank for a transmission between said transmit node and said receive node, and wherein at least one predefined precoding matrix corresponds to said first transmission rank r; - determining by said transmit node a second transmission rank r' for transmitting data from said transmit node to said receive node, where 1 ≤ r' ≤ R, - defining at least two subsets of precoding matrices for at least one of said at least one first transmission rank r; - selecting one of said at least two subsets of precoding matrices based on a channel quality estimate for a radio channel between said transmit node and said receive node; and - signalling said selected one subset of precoding matrices, wherein said selected one subset of precoding matrices is associated with said at least one predefined precoding matrix corresponding to said at least one first transmission rank r - determining said at least two subsets of precoding matrices based on one or more criterions in the group comprising: antenna setup at said transmit node, antenna gain imbalance, and matrix distance metric and
Method for joint determination of a plurality of parameters to be assessed (ĝ,τ̂, ω̂, φ̂) of a transmission channel with the following method steps: - acquisition of a reception signal vector r ( n), - determination of a plurality of different signal parameters each of which are dependent in different ways on the sampled values of the reception signal vector r ( n) and/or on an a priori known transmission signal vector s ( n), - determination of a time offset (τ̂) to be assessed, a frequency offset (ω̂) to be assessed and a phase offset (φ̂) to be assessed of the transmission channel by solving a linear equation system dependent on the determined signal parameters and a gain (ĝ) to be assessed of the transmission channel as a function of the time offset (τ̂) to be assessed, wherein the linear equation system and the function of the gain (ĝ) to be assessed dependent on the time offset (τ̂) to be assessed is obtained from maximisation of a likelihood function L (g,τ,ω,φ) with respect to the parameters (ĝ,τ̂,ω̂,φ̂) to be assessed, wherein the likelihood function L (g,τ, ω, φ) is determined dependent on the parameters (ĝ,τ̂,ω̂,φ̂) to be assessed of the transmission channel and the determined signal parameters from a base band model of the reception signal vector r ( n). - acquisition of a reception signal vector r ( n), - determination of a plurality of different signal parameters each of which are dependent in different ways on the sampled values of the reception signal vector r ( n) and/or on an a priori known transmission signal vector s ( n), - determination of a time offset (τ̂) to be assessed, a frequency offset (ω̂) to be assessed and a phase offset (φ̂) to be assessed of the transmission channel by solving a linear equation system dependent on the determined signal parameters and a gain (ĝ) to be assessed of the transmission channel as a function of the time offset (τ̂) to be assessed,
An image processing device for synthesizing a plurality of mutually adjacent and partially overlapping pieces of image data, the device comprising: a synthesizing unit which synthesizes the plurality of mutually adjacent and partially overlapping pieces of image data; a boundary portion selection unit which, from boundary portions of adjacent image data, selects the boundary portion for calculating an image correction value; a correction value calculator which calculates the image correction value of the boundary portion selected by the boundary portion selection unit; and an image correction unit which, in the boundary portion selected by the boundary portion selection unit, performs image correction of the boundary portion using the image correction value calculated by the correction value calculator, and which, in the boundary portion that has not been selected by the boundary portion selection unit, performs image correction using the image correction value calculated in the past, characterized in that: the boundary portion selection unit changes the boundary portion according to a frame number of the adjacent image data. a synthesizing unit which synthesizes the plurality of mutually adjacent and partially overlapping pieces of image data; a boundary portion selection unit which, from boundary portions of adjacent image data, selects the boundary portion for calculating an image correction value; a correction value calculator which calculates the image correction value of the boundary portion selected by the boundary portion selection unit; and an image correction unit which, in the boundary portion selected by the boundary portion selection unit, performs image correction of the boundary portion using the image correction value calculated by the correction value calculator, and which, in the boundary portion that has not been selected by the boundary portion selection unit, performs image correction using the image correction value calculated in the past, characterized in that: the boundary portion selection unit changes the boundary portion according to a frame number of the adjacent image data.
A system for monitoring overheating comprising: an optical fiber overheat detection instrument loop, the system being characterised in an optical fiber overheat detection testing apparatus for testing the overheat detection instrument loop, the optical fiber overheat detection testing apparatus comprising: an optical fiber having a first end and a second end, the optical fiber characterized by having a predetermined length associated with a predetermined attenuation based on said overheat detection instrument loop; a first interrupt disposed equidistant between the first end and the second end defining a first half of the optical fiber and a second half of the optical fiber, the first half and the second half having equal length, the first interrupt having a first actuator operable by a first electric current to attenuate light wave traversal of the optical fiber; and a test controller configured to perform a test routine, wherein, during the test, the controller operates the first interrupt so as to generate a signal attenuation in the optical fiber, receives a response from an optical fiber operations controller indicative of a signal attenuation, and compares the attenuation against a threshold level. an optical fiber having a first end and a second end, the optical fiber characterized by having a predetermined length associated with a predetermined attenuation based on said overheat detection instrument loop; a first interrupt disposed equidistant between the first end and the second end defining a first half of the optical fiber and a second half of the optical fiber, the first half and the second half having equal length, the first interrupt having a first actuator operable by a first electric current to attenuate light wave traversal of the optical fiber; and a test controller configured to perform a test routine, wherein, during the test, the controller operates the first interrupt so as to generate a signal attenuation in the optical fiber, receives a response from an optical fiber operations controller indicative of a signal attenuation, and compares the attenuation against a threshold level.
A shaving preparation having durable lubricity, comprising: from 0.25 wt% to 5.0 wt% of one or more silicone polyethers; one or more water-soluble polymers that associate with the one or more silicone polyethers; and water; wherein the shaving preparation is in the form of a gel, and wherein one or more water-soluble polymers that associate with the one or more silicone polyethers are from 0.05 wt% to 1.0 wt% of the shaving preparation, and are selected from the group of linear homopolymers of ethylene oxide. from 0.25 wt% to 5.0 wt% of one or more silicone polyethers; one or more water-soluble polymers that associate with the one or more silicone polyethers; and water;
A method of making a MCM-56 molecular sieve comprising the steps of: (a) preparing a reaction mixture comprising an alkali or an alkaline earth metal cation, a precipitated aluminosilicate comprising a source of aluminum (Al) and a source of silicon (Si), a structure-directing agent and water, said reaction mixture having a composition in terms of mole ratios within the following range: SiO 2 /Al 2 O 3 = 15 to 20; H 2 O/SiO 2 = 10 to below 14; OH - /SiO 2 = 0.10 to 0.15; M/SiO 2 = 0.10 to 0.13; R/SiO 2 = 0.1 to 0.2; (b) crystallizing said reaction mixture of step (a) under crystallization conditions of a temperature of from 90°C to 175°C and a time for less than 90 hours to form a resulting mixture comprising crystals of said MCM-56 molecular sieve and less than 10 wt.% of impurity crystals having non-MWW framework structure based on the total weight of said MCM-56 molecular sieve in said reaction mixture, as identified by X-ray diffraction; and (c) recovering at least a portion of said crystals of said MCM-56 molecular sieve from said resulting mixture of step (b) as an as-synthesized MCM-56 molecular sieve having an X-ray diffraction pattern as shown in the Table below: Interplanar d-Spacing (Angstroms) Relative Intensity 1/1 0 X 100 12.4±0.2 vs 9.9±0.3 m 6.9±0.1 w 6.4±0.3 w 6.2±0.1 w 3.57±0.07 m-s 3.44±0.07 vs wherein said M is sodium, and said structure-directing agent comprises hexamethyleneimine. (a) preparing a reaction mixture comprising an alkali or an alkaline earth metal cation, a precipitated aluminosilicate comprising a source of aluminum (Al) and a source of silicon (Si), a structure-directing agent and water, said reaction mixture having a composition in terms of mole ratios within the following range: SiO 2 /Al 2 O 3 = 15 to 20; H 2 O/SiO 2 = 10 to below 14; OH - /SiO 2 = 0.10 to 0.15; M/SiO 2 = 0.10 to 0.13; R/SiO 2 = 0.1 to 0.2; SiO 2 /Al 2 O 3 = 15 to 20; H 2 O/SiO 2 = 10 to below 14; OH - /SiO 2 = 0.10 to 0.15; M/SiO 2 = 0.10 to 0.13; R/SiO 2 = 0.1 to 0.2; (b) crystallizing said reaction mixture of step (a) under crystallization conditions of a temperature of from 90°C to 175°C and a time for less than 90 hours to form a resulting mixture comprising crystals of said MCM-56 molecular sieve and less than 10 wt.% of impurity crystals having non-MWW framework structure based on the total weight of said MCM-56 molecular sieve in said reaction mixture, as identified by X-ray diffraction; and (c) recovering at least a portion of said crystals of said MCM-56 molecular sieve from said resulting mixture of step (b) as an as-synthesized MCM-56 molecular sieve having an X-ray diffraction pattern as shown in the Table below: Interplanar d-Spacing (Angstroms) Relative Intensity 1/1 0 X 100 12.4±0.2 vs 9.9±0.3 m 6.9±0.1 w 6.4±0.3 w 6.2±0.1 w 3.57±0.07 m-s 3.44±0.07 vs
An apparatus comprising: a transmit diversity redundancy controller, TDR, comprising: a switching mechanism; a processor configured to select a first output of the switching mechanism associated with a first antenna branch; and at least one recombiner; characterised in that, in response to an indicator of a fault in a second antenna branch the controller is operable in either an active remediation mode or a passive remediation mode, wherein in the active remediation mode the processor selects as the first output the output of the at least one recombiner including signals associated with the second antenna branch and signals associated with first antenna branch, and wherein in the passive remediation mode, the processor selects as the first output the signals associated with the first antenna branch and the processor drops signals associated with the second antenna branch. a transmit diversity redundancy controller, TDR, comprising: a switching mechanism; a processor configured to select a first output of the switching mechanism associated with a first antenna branch; and at least one recombiner; characterised in that, in response to an indicator of a fault in a second antenna branch the controller is operable in either an active remediation mode or a passive remediation mode, wherein in the active remediation mode the processor selects as the first output the output of the at least one recombiner including signals associated with the second antenna branch and signals associated with first antenna branch, and wherein in the passive remediation mode, the processor selects as the first output the signals associated with the first antenna branch and the processor drops signals associated with the second antenna branch. a switching mechanism; a processor configured to select a first output of the switching mechanism associated with a first antenna branch; and at least one recombiner; characterised in that, in response to an indicator of a fault in a second antenna branch the controller is operable in either an active remediation mode or a passive remediation mode, wherein in the active remediation mode the processor selects as the first output the output of the at least one recombiner including signals associated with the second antenna branch and signals associated with first antenna branch, and wherein in the passive remediation mode, the processor selects as the first output the signals associated with the first antenna branch and the processor drops signals associated with the second antenna branch. characterised in that, in response to an indicator of a fault in a second antenna branch the controller is operable in either an active remediation mode or a passive remediation mode, wherein in the active remediation mode the processor selects as the first output the output of the at least one recombiner including signals associated with the second antenna branch and signals associated with first antenna branch, and wherein in the passive remediation mode, the processor selects as the first output the signals associated with the first antenna branch and the processor drops signals associated with the second antenna branch.
An energy storage system, ESS, having a DC link with reduced voltage rating for a high voltage electrical system, the ESS comprising: an energy storage; and a converter interface arranged for connecting the energy storage to the electrical system; wherein the converter interface comprises a modular multilevel converter in which each phase leg (A, B, C) comprises an upper arm connected to the positive pole of the DC link of the modular multilevel converter and a lower arm connected to the negative pole of the DC link of the modular multilevel converter, each arm comprising a plurality of series connected cells of which at least one is a half-bridge cell and at least one is a full-bridge cell, wherein the at least one full-bridge cell is configured to produce voltage which adds to the voltage of the energy storage to match the system voltage of the electrical system, reducing the voltage of the DC link and allowing the voltage rating of the DC link to be reduced. an energy storage; and a converter interface arranged for connecting the energy storage to the electrical system; wherein the converter interface comprises a modular multilevel converter in which each phase leg (A, B, C) comprises an upper arm connected to the positive pole of the DC link of the modular multilevel converter and a lower arm connected to the negative pole of the DC link of the modular multilevel converter, each arm comprising a plurality of series connected cells of which at least one is a half-bridge cell and at least one is a full-bridge cell, wherein the at least one full-bridge cell is configured to produce voltage which adds to the voltage of the energy storage to match the system voltage of the electrical system, reducing the voltage of the DC link and allowing the voltage rating of the DC link to be reduced.
Insertion device for inserting loose items such as, for example, almond kernels, hazelnut kernels, puffed cereal grains etc. into the recesses of flat plates which are provided with recesses arranged consecutively in longitudinal rows, such as, for example, baked wafer blocks, which is provided with a collecting chamber (9, 30) which is open towards the top and which contains the items in a loose arrangement, a removal device (10, 33) which extends upwards into the collecting chamber (9, 30), which protrudes upwards beyond the collecting chamber (9, 30) and which conveys the items individually upwards from the collecting chamber (9, 30), and a dispensing device (11, 45) which guides the items lifted by the removal device (10, 33) out over the upper edge of the collecting chamber (9, 30) to the lower side of the insertion device (5, 22) and which comprises at least one slide (12, 46) located outside the collecting chamber (9, 30) which leads from the collecting chamber (9, 30) to the lower side of the insertion device (5, 22), characterized in that the removal device (10, 33) is provided with a rotatable, hollow conveying disk (13, 36) which is connected to a low-pressure source, which hollow conveying disk extends into the collecting chamber (9, 30), that the hollow conveying disk (13, 36) has a lateral suction opening (18, 39) in a side wall (13a, 37) for seizing items and that a slide (12, 46) of the dispensing device (11, 45) is disposed next to the side wall (13a, 37) of the hollow conveying disk (13, 36) provided with the lateral suction opening (18, 39).