mhurhangee/ep-ind-claims huggingface dataset:
A data processing method, wherein the method is applied to a data processing system, the data processing system comprises a control node and an operation node, a plurality of data transmission pipes (21, 22, 23) are established between the control node and the operation node, the control node transmits received data to the operation node through the plurality of data transmission pipes, a monitor is disposed in the data processing system for the plurality of data transmission pipes, and the method comprises: sending (S 102), by the operation node, an alarm signal to the control node when the monitor detects that processing performance of data from a first data transmission pipe is lower than a first threshold, wherein the alarm signal is used to indicate that the processing performance of the data from the first data transmission pipe is excessively low, and the first data transmission pipe is any data transmission pipe in the plurality of data transmission pipes (21, 22, 23); and when receiving the alarm signal, reducing, by the control node, a data amount that is from the first data transmission pipe and that is allocated to the operation node without affecting traffic of data from another data transmission pipe of the plurality of data transmission pipes; and wherein the plurality of data transmission pipes (21, 22, 23) established between the control node and the operation node are created by the control node according to partitioning policy information, and the partitioning policy information is used by the control node to determine a partition used to store data received by the data processing system, and each data transmission pipe is created for data from one or more partitions indicated by the partitioning policy. sending (S 102), by the operation node, an alarm signal to the control node when the monitor detects that processing performance of data from a first data transmission pipe is lower than a first threshold, wherein the alarm signal is used to indicate that the processing performance of the data from the first data transmission pipe is excessively low, and the first data transmission pipe is any data transmission pipe in the plurality of data transmission pipes (21, 22, 23); and when receiving the alarm signal, reducing, by the control node, a data amount that is from the first data transmission pipe and that is allocated to the operation node without affecting traffic of data from another data transmission pipe of the plurality of data transmission pipes; and wherein the plurality of data transmission pipes (21, 22, 23) established between the control node and the operation node are created by the control node according to partitioning policy information, and the partitioning policy information is used by the control node to determine a partition used to store data received by the data processing system, and each data transmission pipe is created for data from one or more partitions indicated by the partitioning policy.
Method for determining the load dynamics of a wind turbine in reaction to the wind, wherein the wind turbine has a drive train comprising the power-transmitting rotating components ranging from the rotor to the generator, characterized by the steps: a) determining the current acceleration power ( P accelera-tion), which causes the drive train to accelerate, from the measured rotational speed ( ω) of the drive train; b) determining the power which is being currently transmitted by the drive train ( P transmit); and c) determining the load dynamics as a gradient d dt of the sum of current acceleration power ( P acceleration) and the currently transmitted power ( P transmit). a) determining the current acceleration power ( P accelera-tion), which causes the drive train to accelerate, from the measured rotational speed ( ω) of the drive train; b) determining the power which is being currently transmitted by the drive train ( P transmit); and c) determining the load dynamics as a gradient d dt of the sum of current acceleration power ( P acceleration) and the currently transmitted power ( P transmit).
A composition for use in reconstructing an injured or severed nerve in a mammal, wherein said composition comprises: a decellularized nerve graft of the same species as said mammal, wherein said decellularized nerve graft was prepared by contacting nerve tissue with from 0.01 units/mL to 1 unit/mL of elastase for at least four hours to prepare said decellularized nerve graft, wherein said decellularized nerve graft was not frozen and was stored under cold conditions of from 1.5 °C to 6.5 °C, and wherein said decellularized nerve graft is to be implanted into said mammal to repair said injured or severed nerve, wherein motor function of said nerve is observed after said implanting of said decellularized nerve graft. a decellularized nerve graft of the same species as said mammal, wherein said decellularized nerve graft was prepared by contacting nerve tissue with from 0.01 units/mL to 1 unit/mL of elastase for at least four hours to prepare said decellularized nerve graft, wherein said decellularized nerve graft was not frozen and was stored under cold conditions of from 1.5 °C to 6.5 °C, and wherein said decellularized nerve graft is to be implanted into said mammal to repair said injured or severed nerve, wherein motor function of said nerve is observed after said implanting of said decellularized nerve graft.
Process for the production of radiation-cured foams, characterized in that the radiation-cured foams are produced by 1) in a first step, foaming of an aqueous composition A), subsequently 2) thermal drying of the foam produced from step 1), 3) curing of the foam by actinic radiation or 1) in a first step, foaming of the aqueous composition A), subsequently 2) curing, by actinic radiation, of the foam produced in step 1), 3) thermal drying of the foam, it being possible for steps 2) and 3) to be repeated as often as desired, characterized in that the aqueous composition A) comprises the components A1) one or more radiation-curable aqueous binders, A2) one or more thickeners, A3) one or more foam stabilizers, and characterized in that component A1) comprises polyurethane (meth)acrylates (i). 1) in a first step, foaming of an aqueous composition A), subsequently 2) thermal drying of the foam produced from step 1), 3) curing of the foam by actinic radiation 1) in a first step, foaming of the aqueous composition A), subsequently 2) curing, by actinic radiation, of the foam produced in step 1), 3) thermal drying of the foam, A1) one or more radiation-curable aqueous binders, A2) one or more thickeners, A3) one or more foam stabilizers, and
Rosary comprising: - a first section of a chain closed as a ring, on which five groups of beads divided in decades (1, 2, 3, 4, 5) slide freely and are spaced out by a single bead that separates each group from the others; - a second linear section connected to said first ring-shaped chain section and ending with a crucifix; characterized in that said crucifix is divided into two parts (91, 92; 101, 102) according to a plane that is parallel to the plane containing at least the lower part of the crucifix, and wherein, in proximity to each one of said two parts of the crucifix, there is at least one recess (94, 95) suitable for housing a part of the first ring-shaped chain section, in such a way that when said two parts of the crucifix (91, 92; 101, 102) are joined in order to house said part of the first ring-shaped chain section in said recess (94, 95), said rosary assumes the shape of a bracelet. - a first section of a chain closed as a ring, on which five groups of beads divided in decades (1, 2, 3, 4, 5) slide freely and are spaced out by a single bead that separates each group from the others; - a second linear section connected to said first ring-shaped chain section and ending with a crucifix; characterized in that said crucifix is divided into two parts (91, 92; 101, 102) according to a plane that is parallel to the plane containing at least the lower part of the crucifix, and wherein, in proximity to each one of said two parts of the crucifix, there is at least one recess (94, 95) suitable for housing a part of the first ring-shaped chain section, in such a way that when said two parts of the crucifix (91, 92; 101, 102) are joined in order to house said part of the first ring-shaped chain section in said recess (94, 95), said rosary assumes the shape of a bracelet.
A method for manufacturing a bearing device for a vehicle, said bearing device comprising a vehicle inner side and a vehicle outer side, and said bearing device comprising an outer ring which comprises: a cylindrical main body comprising a raceway in an inner peripheral surface thereof; a flange provided in an outer peripheral surface on a vehicle inner side of the cylindrical main body; and a cylindrical fitting tolerance part provided further on the vehicle inner side than the flange, said cylindrical fitting tolerance part constituting an axial length portion of the outer ring at the vehicle inner side and being provided further on the vehicle inner side than the flange, wherein the cylindrical main body is made by turning in a state where the flange is held by a holding device, characterized in that the cylindrical main body is made by turning in a state where the outer peripheral surface of the flange is held from outward in a radial direction, and then heat-treated, and a side surface on the vehicle-inner-side of the flange and an outer peripheral surface of the cylindrical fitting tolerance part are finished by a turning process after the heat treatment. a cylindrical main body comprising a raceway in an inner peripheral surface thereof; a flange provided in an outer peripheral surface on a vehicle inner side of the cylindrical main body; and a cylindrical fitting tolerance part provided further on the vehicle inner side than the flange, said cylindrical fitting tolerance part constituting an axial length portion of the outer ring at the vehicle inner side and being provided further on the vehicle inner side than the flange, wherein the cylindrical main body is made by turning in a state where the flange is held by a holding device, characterized in that the cylindrical main body is made by turning in a state where the outer peripheral surface of the flange is held from outward in a radial direction, and then heat-treated, and a side surface on the vehicle-inner-side of the flange and an outer peripheral surface of the cylindrical fitting tolerance part are finished by a turning process after the heat treatment.
A thermal vaporization process for coating of polyolefin fibres with a metal, wherein said process comprises the following steps: - inserting a polyolefin fibre or a woven or nonwoven comprising polyolefin fibres into a metallisation chamber comprising a heating means located next to a piece of metal, - applying a high vacuum in said chamber - applying heat by said heating means to said piece of metal whereby the metal evaporates and is deposited onto the colder surface of said polyolefin fibre or woven or nonwoven comprising polyolefin fibres - removing the coated fibre or woven or nonwoven comprising polyolefin fibres from said metallisation chamber, whereby the fibre to be coated with metal is made of a polypropylene composition or of a polyethylene composition, including copolymers of propylene or ethylene with other alpha-olefins comprising from 3 to 6 carbon atoms, wherein the metal is silver and the diameter of the polyolefin fibre to be coated is from 0.1 to 30 μm. - inserting a polyolefin fibre or a woven or nonwoven comprising polyolefin fibres into a metallisation chamber comprising a heating means located next to a piece of metal, - applying a high vacuum in said chamber - applying heat by said heating means to said piece of metal whereby the metal evaporates and is deposited onto the colder surface of said polyolefin fibre or woven or nonwoven comprising polyolefin fibres - removing the coated fibre or woven or nonwoven comprising polyolefin fibres from said metallisation chamber,
A time alignment method for a differential protection device for a power line, comprising: obtaining, from a merging unit of the power line, a plurality of current sampled values of the power line and a count value of each of the plurality of current sampled values, a sampling moment of a current sampled value whose count value is a first value in the plurality of current sampled values is a moment of generation of a pulse-per-second signal of a satellite positioning module of the merging unit; resampling the plurality of current sampled values according to a sampling frequency of J points/cycle of the differential protection device to obtain a plurality of current resampled values, the plurality of current resampled values comprises a reference current resampled value corresponding to the current sampled value whose count value is the first value, wherein J is an integer greater than 1; and performing Fourier transform on the plurality of current resampled values to obtain a plurality of temporally arranged current Fourier values, the plurality of current Fourier values comprises a reference current Fourier value corresponding to the sampling moment of the current sampled value whose count value is the first value in the plurality of current sampled values, and the reference current Fourier value is determined based on the reference current resampled value and the J-1 current resampled values that temporally arranged before the reference current resampled value. obtaining, from a merging unit of the power line, a plurality of current sampled values of the power line and a count value of each of the plurality of current sampled values, a sampling moment of a current sampled value whose count value is a first value in the plurality of current sampled values is a moment of generation of a pulse-per-second signal of a satellite positioning module of the merging unit; resampling the plurality of current sampled values according to a sampling frequency of J points/cycle of the differential protection device to obtain a plurality of current resampled values, the plurality of current resampled values comprises a reference current resampled value corresponding to the current sampled value whose count value is the first value, wherein J is an integer greater than 1; and performing Fourier transform on the plurality of current resampled values to obtain a plurality of temporally arranged current Fourier values, the plurality of current Fourier values comprises a reference current Fourier value corresponding to the sampling moment of the current sampled value whose count value is the first value in the plurality of current sampled values, and the reference current Fourier value is determined based on the reference current resampled value and the J-1 current resampled values that temporally arranged before the reference current resampled value.
Bouillon concentrate comprising the following ingredients in the following amounts, based on the total weight of the bouillon concentrate: 5 to 30 wt.-% of fat, 30 to 70 wt.-% of sodium chloride, 10 to 45 wt.-% of monosodium glutamate, 0.015 to 10 wt.-% of ferric pyrophosphate, 7.1 to 40 wt.-% of a citrate buffer being: citric acid and tripotassium citrate in a weight ratio of citric acid to tripotassium citrate between 0.2 and 0.4, wherein the sum of the weights of said ingredients in the bouillon concentrate sum up to 90 to 100 wt.-%, and wherein the weight ratio of ferric pyrophosphate to said citrate buffer is in a range from 0.005 to 1.5. 5 to 30 wt.-% of fat, 30 to 70 wt.-% of sodium chloride, 10 to 45 wt.-% of monosodium glutamate, 0.015 to 10 wt.-% of ferric pyrophosphate, 7.1 to 40 wt.-% of a citrate buffer being: citric acid and tripotassium citrate in a weight ratio of citric acid to tripotassium citrate between 0.2 and 0.4, wherein the sum of the weights of said ingredients in the bouillon concentrate sum up to 90 to 100 wt.-%, and wherein the weight ratio of ferric pyrophosphate to said citrate buffer is in a range from 0.005 to 1.5.
A system to carry print media through a print zone in a printer, the system comprising: an endless conveyor belt in a loop; a driver operatively connected to the conveyor belt to circulate the conveyor belt through the print zone; an encoder operatively connected to the driver to measure movement of the conveyor belt; the system being characterised in that: the driver is under the print zone; the encoder is under the print zone and is to measure movement of the conveyor belt in the print zone indirectly through the driver; and in that the system further comprises a controller programmed to control the driver based on measurements from the encoder. an endless conveyor belt in a loop; a driver operatively connected to the conveyor belt to circulate the conveyor belt through the print zone; an encoder operatively connected to the driver to measure movement of the conveyor belt; the system being characterised in that: the driver is under the print zone; the encoder is under the print zone and is to measure movement of the conveyor belt in the print zone indirectly through the driver; and in that the system further comprises a controller programmed to control the driver based on measurements from the encoder. the driver is under the print zone; the encoder is under the print zone and is to measure movement of the conveyor belt in the print zone indirectly through the driver; and in that the system further comprises a controller programmed to control the driver based on measurements from the encoder.
A method of preparing an immunologically-active adjuvant-bound dried vaccine composition, the method comprising: (a) providing aluminum hydroxide as aluminum salt adjuvant in a concentration of 1 mg/ml, at least one buffer system containing at least one volatile salt at 10 mM and at pH 6 selected from the group consisting of ammonium acetate, ammonium formate, ammonium carbonate, ammonium bicarbonate, at least one glass-forming agent consisting of trehalose in a weight-to-volume concentration of from about 5% to about 15%, and at least one antigen consisting of ricin toxin, and at least one TLR-4 agonists as an immunologically-active co-adjuvant selected from the group consisting of lipid A, lipid A derivatives, monophosphoryl lipid A; (b) combining (a) together to create a liquid vaccine formulation; (c) lyophilizing the liquid vaccine formulation in (b) where lyophilizing comprises steps of: i) freezing the liquid vaccine formulation to create a frozen vaccine formulation wherein the freezing step comprises one of tray freezing, shelf freezing, spray-freezing and shell-freezing and uses a pre-cooled tray to initiate the freezing step; and (d) drying the frozen vaccine formulation in (c) to create a dried vaccine composition, wherein the dried vaccine composition is capable of eliciting an immune response in a subject wherein the immune response developed by the subject may be humoral immunity and/or cell-mediated immunity specific to the antigen. (a) providing aluminum hydroxide as aluminum salt adjuvant in a concentration of 1 mg/ml, at least one buffer system containing at least one volatile salt at 10 mM and at pH 6 selected from the group consisting of ammonium acetate, ammonium formate, ammonium carbonate, ammonium bicarbonate, at least one glass-forming agent consisting of trehalose in a weight-to-volume concentration of from about 5% to about 15%, and at least one antigen consisting of ricin toxin, and at least one TLR-4 agonists as an immunologically-active co-adjuvant selected from the group consisting of lipid A, lipid A derivatives, monophosphoryl lipid A; (b) combining (a) together to create a liquid vaccine formulation; (c) lyophilizing the liquid vaccine formulation in (b) where lyophilizing comprises steps of: i) freezing the liquid vaccine formulation to create a frozen vaccine formulation wherein the freezing step comprises one of tray freezing, shelf freezing, spray-freezing and shell-freezing and uses a pre-cooled tray to initiate the freezing step; and i) freezing the liquid vaccine formulation to create a frozen vaccine formulation wherein the freezing step comprises one of tray freezing, shelf freezing, spray-freezing and shell-freezing and uses a pre-cooled tray to initiate the freezing step; and (d) drying the frozen vaccine formulation in (c) to create a dried vaccine composition, wherein the dried vaccine composition is capable of eliciting an immune response in a subject wherein the immune response developed by the subject may be humoral immunity and/or cell-mediated immunity specific to the antigen.
A tunable laser operative to emit tunable radiation over an emission wavelength range having a center wavelength, with an output power spectrum over said wavelength range and an average emission power, said tunable laser comprising: an optical cavity including a first and second mirror (130, 140); a gain region interposed between said first and second mirrors (130, 140); an airgap tuning region; and a MEMS-actuation mechanism for adjusting said airgap, said actuation mechanism comprising a deformable dielectric membrane transparent over said wavelength range and attached to a rigid support structure; said MEMS-actuation mechanism comprising a central plate with supporting arms; wherein: a free spectral range of said optical cavity exceeds 5% of said center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; said MEMS-actuation mechanism has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; said MEMS-actuation mechanism comprising a membrane tensile stress in a range of 100-1000 MPa; said central plate having a diameter between 50 μm and 110 μm and such that a frequency response of said MEMS-actuation mechanism for adjusting said airgap has damping substantially increased by squeeze-film damping effects. an optical cavity including a first and second mirror (130, 140); a gain region interposed between said first and second mirrors (130, 140); an airgap tuning region; and a MEMS-actuation mechanism for adjusting said airgap, said actuation mechanism comprising a deformable dielectric membrane transparent over said wavelength range and attached to a rigid support structure; said MEMS-actuation mechanism comprising a central plate with supporting arms; wherein: a free spectral range of said optical cavity exceeds 5% of said center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; said MEMS-actuation mechanism has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; said MEMS-actuation mechanism comprising a membrane tensile stress in a range of 100-1000 MPa; said central plate having a diameter between 50 μm and 110 μm and such that a frequency response of said MEMS-actuation mechanism for adjusting said airgap has damping substantially increased by squeeze-film damping effects. a free spectral range of said optical cavity exceeds 5% of said center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; said MEMS-actuation mechanism has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; said MEMS-actuation mechanism comprising a membrane tensile stress in a range of 100-1000 MPa; said central plate having a diameter between 50 μm and 110 μm and such that a frequency response of said MEMS-actuation mechanism for adjusting said airgap has damping substantially increased by squeeze-film damping effects.