mhurhangee/ep-ind-claims huggingface dataset:
A method for resolving a link failure occurring on a link between a first virtualized network function, VNF, and a second VNF provided in a cloud computing environment, the method being performed by the first VNF and comprising: receiving a link failure notification comprising link recovery status information indicating a current recovery status of the link from a managing entity in the cloud computing environment, the link recovery status information comprising an estimated recovery time indicating an estimated time within which recovery of the link can be expected; and triggering an action depending on the link recovery status information to resolve the link failure, wherein: - if the link recovery status information indicates that recovery of the link is in progress, the action comprises: waiting for the link to be recovered if the estimated recovery time remains within a maximum allowed link failure time, and triggering performing a failover substituting the second VNF by a third VNF if the estimated recovery time does not remain within the maximum allowed link failure time, or - if the link recovery status information indicates that recovery of the link is not possible, the action comprises triggering performing a failover substituting the second VNF by a third VNF, or - if the link recovery status information indicates that recovery of the link is complete, the action comprises discarding the link failure notification. receiving a link failure notification comprising link recovery status information indicating a current recovery status of the link from a managing entity in the cloud computing environment, the link recovery status information comprising an estimated recovery time indicating an estimated time within which recovery of the link can be expected; and triggering an action depending on the link recovery status information to resolve the link failure, wherein: - if the link recovery status information indicates that recovery of the link is in progress, the action comprises: - if the link recovery status information indicates that recovery of the link is in progress, the action comprises: waiting for the link to be recovered if the estimated recovery time remains within a maximum allowed link failure time, and triggering performing a failover substituting the second VNF by a third VNF if the estimated recovery time does not remain within the maximum allowed link failure time, or - if the link recovery status information indicates that recovery of the link is not possible, the action comprises triggering performing a failover substituting the second VNF by a third VNF, or - if the link recovery status information indicates that recovery of the link is complete, the action comprises discarding the link failure notification. - if the link recovery status information indicates that recovery of the link is not possible, the action comprises triggering performing a failover substituting the second VNF by a third VNF, or - if the link recovery status information indicates that recovery of the link is complete, the action comprises discarding the link failure notification.
A method for producing glucaric acid including the following steps: 1) a step of transforming a host cell with an expression cassette containing a nucleic acid that encodes inositol-1-phosphate synthase, an expression cassette containing a nucleic acid that encodes an inositol monophosphatase, an expression cassette containing a nucleic acid that encodes myo-inositol oxygenase, and an expression cassette containing a nucleic acid that encodes uronic acid dehydrogenase; 2) a step for bringing the transformed host cell of step 1) into contact with a carbon source that can be converted into glucaric acid by the transformant under conditions suited to growth and/or maintenance of the transformant; and 3) a step for separating the glucaric acid or glucarate from culture obtained in the step 2). 1) a step of transforming a host cell with an expression cassette containing a nucleic acid that encodes inositol-1-phosphate synthase, an expression cassette containing a nucleic acid that encodes an inositol monophosphatase, an expression cassette containing a nucleic acid that encodes myo-inositol oxygenase, and an expression cassette containing a nucleic acid that encodes uronic acid dehydrogenase; 2) a step for bringing the transformed host cell of step 1) into contact with a carbon source that can be converted into glucaric acid by the transformant under conditions suited to growth and/or maintenance of the transformant; and 3) a step for separating the glucaric acid or glucarate from culture obtained in the step 2).
Use of a polypeptide having an amino acid sequence selected from the group consisting of SEQ ID No. 3, SEQ ID No. 2 and variants of said polypeptides that are obtained by adding, deleting or exchanging up to 10% of the amino acids present in the respective polypeptide and have urethanase activity in the enzymatic cleavage of urethane linkages.
7β-Hydroxysteroid dehydrogenase (7β-HSDH) catalysing at least the stereospecific enzymatic reduction of a 7-ketosteroid to form the corresponding 7-hydroxysteroid, wherein the enzyme has a mutation in each case in positions G39 and R40 of SEQ ID NO:2 or in an amino acid sequence derived therefrom having at least 80% sequence identity to SEQ ID NO:2, wherein the enzyme comprises the double mutation G39D/R40F.
A method of providing force control of a robot, wherein: - drives of the robot are commanded on the basis of a first target component ( τ cmd, 1) and on the basis of a second target component ( τ cmd, 2); characterised in that - the first target component is determined on the basis of a first control difference component (Δ F 1) which is determined on the basis of at least one low-pass filtering of a control difference (Δ F) between a target load ( F cmd) to be exerted by the robot and an actual load detected as being exerted by the robot; and - the second target component ( τ cmd, 2) is determined on the basis of a second control difference component (Δ F 2) which is determined on the basis of a difference load between the control difference and the first control difference component. - drives of the robot are commanded on the basis of a first target component ( τ cmd, 1) and on the basis of a second target component ( τ cmd, 2); - the first target component is determined on the basis of a first control difference component (Δ F 1) which is determined on the basis of at least one low-pass filtering of a control difference (Δ F) between a target load ( F cmd) to be exerted by the robot and an actual load detected as being exerted by the robot; and - the second target component ( τ cmd, 2) is determined on the basis of a second control difference component (Δ F 2) which is determined on the basis of a difference load between the control difference and the first control difference component.
A method for controlling a lymphatic pressure-measuring system that includes measurement means, detection means, and display means, comprising: a measurement step in which the measurement means measures and outputs pressure of a manchette fitted on a vital observation portion; a detection step (S13, S15) in which the detection means detects fluorescence emitted from fluorescent dye previously injected into a lymph vessel in the vital observation portion; and a display step (S13, S15) in which the display means generates and displays an image showing a position of the fluorescent dye in the lymph vessel based on a detection result in the detection step, wherein in the detection step (S13, S15), detection is repeated while reducing the pressure of the manchette so as to decrease from first pressure to block a lymph flow in the vital observation portion to second pressure at restart of the lymph flow, in the measurement step, measurement is repeated while reducing the pressure of the manchette so as to decrease from the first pressure to the second pressure, and at least a part of the manchette is formed of a transparent member so that the fluorescence can pass through. a measurement step in which the measurement means measures and outputs pressure of a manchette fitted on a vital observation portion; a detection step (S13, S15) in which the detection means detects fluorescence emitted from fluorescent dye previously injected into a lymph vessel in the vital observation portion; and a display step (S13, S15) in which the display means generates and displays an image showing a position of the fluorescent dye in the lymph vessel based on a detection result in the detection step, wherein in the detection step (S13, S15), detection is repeated while reducing the pressure of the manchette so as to decrease from first pressure to block a lymph flow in the vital observation portion to second pressure at restart of the lymph flow, in the measurement step, measurement is repeated while reducing the pressure of the manchette so as to decrease from the first pressure to the second pressure, and at least a part of the manchette is formed of a transparent member so that the fluorescence can pass through.
An aluminum alloy brazing sheet comprising: a core material consisting of Si in a content of 0.5 to 1.1 percent by mass, Mn in a content of 0.6 to 2.0 percent by mass, Cu in a content of 0.5 to 1.1 percent by mass, Mg in a content of 0.05 to 0.45 percent by mass, and Ti in a content of 0.05 to 0.25 percent by mass, optionally Fe in a content of 0.2 percent by mass or less, Cr in a content of 0.2 percent by mass or less, and Zr in a content of 0.2 percent by mass or less, with the remainder aluminum and inevitable impurities; a clad material lying on one side of the core material, having a thickness of from 25 to 50 μm, and consisting of Si in a content of more than 0.5 percent by mass but 1.1 percent by mass or less, Mn in a content of 0.01 to 1.7 percent by mass, and Zn in a content of 3.0 to 6.0 percent by mass, optionally Fe in a content of 0.2 percent by mass or less, Cr in a content of 0.2 percent by mass or less, and Zr in a content of 0.2 percent by mass or less, with the remainder aluminum and inevitable impurities; and a filler material lying on the other side of the core material, having a thickness of from 36 to 55 μm, and consisting of Si in a content of 7.0 to 12 percent by mass, optionally Fe in a content of 0.3 percent by mass or less, and Ti in a content of 0.05 percent by mass or less, with the remainder aluminum and inevitable impurities, wherein the core material has a grain size of 50 μm or more but less than 300 μm in a rolling direction after the aluminum alloy brazing sheet is subjected to brazing at a temperature of from 580°C to 610°C for 3 to 10 minutes. a core material consisting of Si in a content of 0.5 to 1.1 percent by mass, Mn in a content of 0.6 to 2.0 percent by mass, Cu in a content of 0.5 to 1.1 percent by mass, Mg in a content of 0.05 to 0.45 percent by mass, and Ti in a content of 0.05 to 0.25 percent by mass, optionally Fe in a content of 0.2 percent by mass or less, Cr in a content of 0.2 percent by mass or less, and Zr in a content of 0.2 percent by mass or less, with the remainder aluminum and inevitable impurities; a clad material lying on one side of the core material, having a thickness of from 25 to 50 μm, and consisting of Si in a content of more than 0.5 percent by mass but 1.1 percent by mass or less, Mn in a content of 0.01 to 1.7 percent by mass, and Zn in a content of 3.0 to 6.0 percent by mass, optionally Fe in a content of 0.2 percent by mass or less, Cr in a content of 0.2 percent by mass or less, and Zr in a content of 0.2 percent by mass or less, with the remainder aluminum and inevitable impurities; and a filler material lying on the other side of the core material, having a thickness of from 36 to 55 μm, and consisting of Si in a content of 7.0 to 12 percent by mass, optionally Fe in a content of 0.3 percent by mass or less, and Ti in a content of 0.05 percent by mass or less, with the remainder aluminum and inevitable impurities, wherein the core material has a grain size of 50 μm or more but less than 300 μm in a rolling direction after the aluminum alloy brazing sheet is subjected to brazing at a temperature of from 580°C to 610°C for 3 to 10 minutes.
A circuit comprising: a first estimator circuit modeling nonlinear signal distortion from a transmitter at a receiver based on an analysis of an outgoing digital signal which is converted to an analog signal and transmitted at the transmitter; a first mixer mixing an output of the estimator circuit with a frequency offset signal (e jθo) and shifting the estimator circuit output to an intermediate frequency offset representing a difference between frequencies of the transmitter and the receiver; and a first subtractor, characterized in that a first delay unit and a decimator are coupled between the first mixer and the first subtractor to form a frequency shifted downsampled estimator output signal, wherein the first delay unit is arranged to delay the estimator circuit output until the estimator circuit output is synchronized with a corresponding portion of the incoming signal at the first subtractor; and the decimator is arranged to downsample the mixed estimator circuit output, and the first subtractor is arranged to receive the frequency shifted downsampled estimator output signal and to subtract it from a digitized incoming signal received at the receiver. a first estimator circuit modeling nonlinear signal distortion from a transmitter at a receiver based on an analysis of an outgoing digital signal which is converted to an analog signal and transmitted at the transmitter; a first mixer mixing an output of the estimator circuit with a frequency offset signal (e jθo) and shifting the estimator circuit output to an intermediate frequency offset representing a difference between frequencies of the transmitter and the receiver; and a first subtractor, characterized in that a first delay unit and a decimator are coupled between the first mixer and the first subtractor to form a frequency shifted downsampled estimator output signal, wherein the first delay unit is arranged to delay the estimator circuit output until the estimator circuit output is synchronized with a corresponding portion of the incoming signal at the first subtractor; and
A method for purifying at least one non- aggregated antibody or at least one antibody fragment that retains antigen-binding function from an impure preparation containing said antibody or antibody fragment comprising the steps of: (a) contacting the impure preparation with an apatite chromatography support, wherein the apatite chromatography support is in a calcium-derivatized form when it is contacted with the antibody or antibody fragment, and (b) substantially converting the calcium-derivatized apatite chromatography support to its native form prior to eluting the antibody or antibody fragment. (a) contacting the impure preparation with an apatite chromatography support, wherein the apatite chromatography support is in a calcium-derivatized form when it is contacted with the antibody or antibody fragment, and (b) substantially converting the calcium-derivatized apatite chromatography support to its native form prior to eluting the antibody or antibody fragment.
A gutter drain for installing in a floor, which has a gutter space delimited by a gutter base and lateral gutter walls, wherein each lateral gutter wall continues, starting from the gutter base, in a lateral grate support and a lateral grate side wall and opens in each case into an exposed web, wherein the gutter base has a transverse slope, in which at least one portion of the gutter base is angled transversely to a gutter longitudinal direction, characterized in that a wall element is arranged between the gutter base and each lateral gutter wall, wherein the wall element extends along a plane and is at an angle to the gutter base and to the adjacent lateral gutter wall, wherein the angle (α) between the gutter base and each wall element is in the range from 110° to 160° and the angle (β) between each wall element and the respectively adjacent lateral gutter wall is in the range from 110° to 160°.
An immunogenic composition in a unit dose form for administration to a patient comprising (i) a diphtheria toxoid, a tetanus toxoid, and an acellular pertussis antigen which contains a pertussis toxoid, (ii) an aluminium salt adjuvant, wherein the amount of Al +++ in the unit dose is from 10μg to less than 0.2 mg, and (iii) a TLR7 agonist adsorbed to the aluminium salt adjuvant, wherein the TLR7 agonist includes at least one phosphate or phosphonate group and wherein the aluminium salt adjuvant and the TLR7 agonist form a stable adjuvant complex that retains the aluminium salt adjuvant's ability to adsorb antigens.
RFID device for monitoring the ripeness degree of a fruit, the device comprising an RFID label, a reader of said RFID label and means for processing data relating to or correlated to the ripeness of the fruit, the RFID device being characterized in that: - the RFID label operates in UHF band having a pre-set frequency and/or impedance and/or power value and is intended to be directly or indirectly applied to a fruit to be monitored for its ripeness degree, - the reader of said RFID label is capable of detecting, at each reading, a signal transmitted by said RFID label to the reader which is correlated to the frequency and/or impedance and/or power of the RFID label, said transmitted signal having a frequency and/or impedance and/or power correlated or that can be correlated to the ripeness degree of the fruit on which said RFID label is directly or indirectly applied, - the means for processing data relating to or correlated to the ripeness of the fruit comprises means for processing data relating or correlated to the frequency and/or impedance and/or power of the transmitted signal and/or means for processing data relating or correlated to the frequency and/or impedance and/or power variation between the transmitted signal and the pre-set frequency and/or impedance and/or power value. - the RFID label operates in UHF band having a pre-set frequency and/or impedance and/or power value and is intended to be directly or indirectly applied to a fruit to be monitored for its ripeness degree, - the reader of said RFID label is capable of detecting, at each reading, a signal transmitted by said RFID label to the reader which is correlated to the frequency and/or impedance and/or power of the RFID label, said transmitted signal having a frequency and/or impedance and/or power correlated or that can be correlated to the ripeness degree of the fruit on which said RFID label is directly or indirectly applied, - the means for processing data relating to or correlated to the ripeness of the fruit comprises means for processing data relating or correlated to the frequency and/or impedance and/or power of the transmitted signal and/or means for processing data relating or correlated to the frequency and/or impedance and/or power variation between the transmitted signal and the pre-set frequency and/or impedance and/or power value.
A display device comprising: a display area in which a pixel area is defined on a substrate by an intersection of a gate line (HL1,..., HLn) transferring a gate signal, and a data line (VL1,..., VLm) transferring a data signal, the pixel area comprising a pixel electrode and an oxide thin film transistor having a coplanar structure; a first pad unit including at least two first pads formed in a first area separate from the display area, each of the at least two first pads connected to the gate line; a second pad unit including at least two second pads formed in a second area separate from the display area, each of the at least two second pads connected to the data line, wherein at least one of the first and second pad units includes a pad electrode formed of a same material as the pixel electrode, an oxide semiconductor layer formed over an area of the substrate laterally between the at least two first pads or the at least two second pads; and a buffer layer formed on the substrate, wherein the oxide semiconductor layer is formed on the buffer layer, wherein a lower insulation layer is formed on the oxide semiconductor layer and the buffer layer and partially or entirely overlaps the oxide semiconductor layer and the buffer layer. a display area in which a pixel area is defined on a substrate by an intersection of a gate line (HL1,..., HLn) transferring a gate signal, and a data line (VL1,..., VLm) transferring a data signal, the pixel area comprising a pixel electrode and an oxide thin film transistor having a coplanar structure; a first pad unit including at least two first pads formed in a first area separate from the display area, each of the at least two first pads connected to the gate line; a second pad unit including at least two second pads formed in a second area separate from the display area, each of the at least two second pads connected to the data line, wherein at least one of the first and second pad units includes a pad electrode formed of a same material as the pixel electrode, an oxide semiconductor layer formed over an area of the substrate laterally between the at least two first pads or the at least two second pads; and a buffer layer formed on the substrate, wherein the oxide semiconductor layer is formed on the buffer layer, wherein a lower insulation layer is formed on the oxide semiconductor layer and the buffer layer and partially or entirely overlaps the oxide semiconductor layer and the buffer layer.
A socket assembly comprising: a lighting package; a socket housing having a receptacle that removably receives the lighting package the socket housing holding power contacts that engage and power the lighting package; and a heat-dissipating structure coupled to the socket housing, the heat-dissipating structure being positioned at the receptacle in thermal engagement with the lighting package and configured to engage a heat sink to dissipate heat from the lighting package to the heat sink, wherein the heat dissipating structure includes a base configured to engage the heat sink, the base extending along a bottom of the receptacle, and characterised in that the base includes fingers extending upward from the base into the receptacle, the fingers being compliant beams that engage and deflect against a bottom of the lighting package to dissipate heat from the lighting package. a lighting package; a socket housing having a receptacle that removably receives the lighting package the socket housing holding power contacts that engage and power the lighting package; and a heat-dissipating structure coupled to the socket housing, the heat-dissipating structure being positioned at the receptacle in thermal engagement with the lighting package and configured to engage a heat sink to dissipate heat from the lighting package to the heat sink, wherein the heat dissipating structure includes a base configured to engage the heat sink, the base extending along a bottom of the receptacle, and characterised in that the base includes fingers extending upward from the base into the receptacle, the fingers being compliant beams that engage and deflect against a bottom of the lighting package to dissipate heat from the lighting package.
A device for simulating fire effects in military or civilian combat training, said device comprising a light source and means adapted to control a light lobe formed by light beams from said light source, wherein the light lobe includes information, wherein said controlling means comprises a two-dimensional array of elements electronically controllable to assume a selected state among at least a first state of letting through said light inciding thereupon in a main direction of said light lobe and a second state of not letting through said light inciding thereupon in said main direction, and a unit adapted to control said elements for designing the spatial propagation of said light lobe, characterized in that the information sent out by the light source is in the form of a code with the information formed by the length of the time periods between consecutive light pulses.