mhurhangee/ep-ind-claims huggingface dataset:
A spectrum processing apparatus, comprising: a port assembly, a lens assembly, a dispersive assembly, a spatial light modulator, SLM, and a reflective element, wherein the port assembly comprises N ports, and the lens assembly comprises M lenses, wherein N is an integer greater than 1, and M is an integer greater than or equal to 1 and less than or equal to N; each port in the port assembly is configured to transmit an input first light beam to a lens corresponding to the port; each lens in the lens assembly is configured to adjust a width of the first light beam to obtain a second light beam, and transmit the second light beam to the reflective element; the reflective element is configured to reflect the second light beam to the dispersive assembly; the dispersive assembly is configured to decompose the second light beam into a plurality of sub-wavelength light beams, and transmit the plurality of sub-wavelength light beams to the reflective element; the reflective element is further configured to reflect the plurality of sub-wavelength light beams to the SLM; the SLM is configured to modulate the plurality of sub-wavelength light beams, and reflect at least one modulated sub-wavelength light beam to the reflective element; the reflective element is further configured to reflect the at least one sub-wavelength light beam to the dispersive assembly; the dispersive assembly is further configured to multiplex the at least one sub-wavelength light beam, and transmit a multiplexed light beam successively through the reflective element and the lens assembly to the port assembly; characterised in that a focal length of each lens in the lens assembly is adjustable. each port in the port assembly is configured to transmit an input first light beam to a lens corresponding to the port; each lens in the lens assembly is configured to adjust a width of the first light beam to obtain a second light beam, and transmit the second light beam to the reflective element; the reflective element is configured to reflect the second light beam to the dispersive assembly; the dispersive assembly is configured to decompose the second light beam into a plurality of sub-wavelength light beams, and transmit the plurality of sub-wavelength light beams to the reflective element; the reflective element is further configured to reflect the plurality of sub-wavelength light beams to the SLM; the SLM is configured to modulate the plurality of sub-wavelength light beams, and reflect at least one modulated sub-wavelength light beam to the reflective element; the reflective element is further configured to reflect the at least one sub-wavelength light beam to the dispersive assembly; the dispersive assembly is further configured to multiplex the at least one sub-wavelength light beam, and transmit a multiplexed light beam successively through the reflective element and the lens assembly to the port assembly;
Method for coating a substrate comprising a low-density metal, i.e. a metal or an alloy with density below 5 g/cm 3, and/or molybdenum and/or tantalum, where the layer is produced by means of plasma-chemical anodic oxidation in an aqueous electrolyte, where the aqueous electrolyte comprises: - ammonium heptamolybdate or ammonium heptamolybdate hexahydrate, - iron citrate or ammonium iron citrate, - another complexing agent. - ammonium heptamolybdate or ammonium heptamolybdate hexahydrate, - iron citrate or ammonium iron citrate, - another complexing agent.
A computer storage medium having computer readable instructions stored thereupon that, when executed by a computer, cause the computer to: receive a definition for a policy configured to control access to data on a computing device; store the policy; and send the policy to the computing device, wherein the computing device is configured to enforce access to the data in accordance with the policy, wherein the policy comprises a lock policy comprising instructions specifying a plurality of lock levels that each permit access to the data or a portion thereof in response to receipt of a valid authentication credential, wherein a lock at a first lock level locks documents at lock levels lower than the first lock level, wherein the policy further comprises a storage control policy comprising instructions that dictate storage of the data on the computing device, and wherein the storage control policy further comprises instructions indicating how long the data can be stored on the computing device. receive a definition for a policy configured to control access to data on a computing device; store the policy; and send the policy to the computing device, wherein the computing device is configured to enforce access to the data in accordance with the policy, wherein the policy comprises a lock policy comprising instructions specifying a plurality of lock levels that each permit access to the data or a portion thereof in response to receipt of a valid authentication credential, wherein a lock at a first lock level locks documents at lock levels lower than the first lock level, wherein the policy further comprises a storage control policy comprising instructions that dictate storage of the data on the computing device, and wherein the storage control policy further comprises instructions indicating how long the data can be stored on the computing device.
A method for producing a stable microbicidal composition; said method comprising steps of: (a) combining a glycol solvent of formula R(OCH 2 CHR 1) n OH, wherein R is C 1 -C 6 alkyl and n has a number average value from 2 to 5 and R 1 is hydrogen or methyl; dodecylbenzenesulfonic acid in an amount from 0.3 to 1.8 wt% based on the entire microbicidal composition; and a copper salt selected from the group consisting of copper hydroxide, copper carbonate and mixtures thereof to form an initial mixture; wherein a mole ratio of copper: dodecylbenzenesulfonic acid is from 1:0.25 to 1:1.95; (b) maintaining the initial mixture at 50 to 80°C until an amount of copper ion in solution is stable, wherein the amount of copper ion in solution is considered to be stable when the percent change in copper ion concentration in solution over a thirty-minute period is no more than 1.2%; and (c) adding 4,5-dichloro-2-n-octyl-4-isothiazolin-3-one to produce a final mixture, and removing excess insoluble copper hydroxide or oxide salts from the final mixture.
A portable beverage vessel for storing beverage to be consumed by a human, having - a beverage container, in which the beverage is stored; and - an electronic device having a vessel controller, a transmitter and a receiver, said vessel controller being adapted to communicate with a beverage dispenser by exchanging messages using the transmitter and receiver of the electronic device; - wherein the vessel controller is adapted to send an identification message to the beverage dispenser, by which the beverage dispenser can identify the portable beverage vessel, - wherein the beverage container is a bottle shaped container, wherein around a neck of the bottle shaped container a doughnut shaped housing is arranged and wherein at least the vessel controller and an accumulator are arranged in the doughnut shaped housing; - further comprising a lid arranged above the doughnut shaped housing; - wherein a display element is arranged in the doughnut shaped housing characterized in that said display element emits light into a second light transmission section being a transparent ring arranged in the upper portion of the doughnut shaped housing and arranged around the lid. - a beverage container, in which the beverage is stored; and - an electronic device having a vessel controller, a transmitter and a receiver, said vessel controller being adapted to communicate with a beverage dispenser by exchanging messages using the transmitter and receiver of the electronic device; - wherein the vessel controller is adapted to send an identification message to the beverage dispenser, by which the beverage dispenser can identify the portable beverage vessel, - wherein the beverage container is a bottle shaped container, wherein around a neck of the bottle shaped container a doughnut shaped housing is arranged and wherein at least the vessel controller and an accumulator are arranged in the doughnut shaped housing; - further comprising a lid arranged above the doughnut shaped housing; - wherein a display element is arranged in the doughnut shaped housing characterized in that said display element emits light into a second light transmission section being a transparent ring arranged in the upper portion of the doughnut shaped housing and arranged around the lid.
Power supply circuit for an on board energy source or storage device comprising a super-capacitor storage unit, the said super-capacitor storage unit consisting in a plurality of super-capacitors interconnected one to the other, the said super-capacitor storage unit having a first and a second terminal (401, 402) the circuit comprising a positive bus connecting the first terminal of the said super-capacitor storage unit to a positive pole of a DC high voltage feeding source and a negative bus connecting the said second terminal of the super-capacitor storage unit to a negative pole of the said DC high voltage feeding source, the negative bus being connected to the ground at a certain grounding point, the said circuit further comprises means for disconnecting the super-capacitor storage unit from the high voltage feeding source in response to the detection of fault currents circulation due to insulation losses to ground of the super-capacitor storage unit and characterized in that in said power supply circuit the said means for disconnecting the super capacitor storage unit from the high voltage feeding source consist in a high speed circuit breaker and a differential relay which are connected in series along the negative bus, between said second terminal and the said grounding point, the differential relay being connected also in series in the positive bus and being capable of generating an activation signal of the high speed circuit breaker in response to a fault current circulation detected by measuring the differences of the currents in the positive and in the negative bus.
A process for preparing a stabilized additive concentrate suitable for use in condensation curable organosiloxane compositions by mixing (i) A solid additive in an amount of from 25 to 80wt. % of the composition with (ii) a liquid carrier comprising a dialkylsilanol terminated polydiorganosiloxane polymer in an amount of from 20 to 75wt. % of the composition with (iii) a stabilizer comprising or consisting of a polydialkylsiloxane having the general formula: R 3 3 -Si-O-((R 2) 2 SiO) d -Si-R 3 3 where R 2 is an alkyl or phenyl group, each R 3 group may be the same or different and are selected from R 2 alkenyl or alkynyl groups and the average value of d is between 7 and 20, in an amount of from 0.5 to 5wt. % of the composition. (i) A solid additive in an amount of from 25 to 80wt. % of the composition with (ii) a liquid carrier comprising a dialkylsilanol terminated polydiorganosiloxane polymer in an amount of from 20 to 75wt. % of the composition with (iii) a stabilizer comprising or consisting of a polydialkylsiloxane having the general formula: R 3 3 -Si-O-((R 2) 2 SiO) d -Si-R 3 3 where R 2 is an alkyl or phenyl group, each R 3 group may be the same or different and are selected from R 2 alkenyl or alkynyl groups and the average value of d is between 7 and 20, in an amount of from 0.5 to 5wt. % of the composition.
A composition for enhancing bonding of isocyanate functional adhesives to fiber reinforced plastic substrate, which composition comprises: a) from 0.1 percent to 10.0 percent based on the weight of the composition of one or more organometallic compounds; b) one or more high boiling point solvents selected from straight and branched alkylphthalates, a partially hydrogenated terpene, trioctyl phosphate, alkylsulfonic acid esters of phenol, toluene-sulfamide, adipic acid esters, castor oil and 1-methyl-2-pyrrolidinone; and c) one or more low boiling point solvents selected from cycloaliphatic hydrocarbons, aliphatic hydrocarbons, aromatic hydrocarbons, ketones and esters, wherein, high boiling point solvent means a compound which flows at ambient temperatures and which exhibits a boiling point of 180 °C or greater at standard pressure or has a vapor pressure of less than 0.1 mbar at 20 °C; and low boiling point solvent means the solvent is liquid at ambient temperatures, and is volatile at temperatures of 15 °C to less than 180 °C at standard pressure. a) from 0.1 percent to 10.0 percent based on the weight of the composition of one or more organometallic compounds; b) one or more high boiling point solvents selected from straight and branched alkylphthalates, a partially hydrogenated terpene, trioctyl phosphate, alkylsulfonic acid esters of phenol, toluene-sulfamide, adipic acid esters, castor oil and 1-methyl-2-pyrrolidinone; and c) one or more low boiling point solvents selected from cycloaliphatic hydrocarbons, aliphatic hydrocarbons, aromatic hydrocarbons, ketones and esters, wherein, high boiling point solvent means a compound which flows at ambient temperatures and which exhibits a boiling point of 180 °C or greater at standard pressure or has a vapor pressure of less than 0.1 mbar at 20 °C; and low boiling point solvent means the solvent is liquid at ambient temperatures, and is volatile at temperatures of 15 °C to less than 180 °C at standard pressure.
Electrode arrangement for an ozone generator having a tubular outer electrode which surrounds a tubular dielectric concentrically and at a distance, wherein the dielectric surrounds a rod concentrically at a distance, and wherein a filling material is provided in the intermediate space between the outer electrode and the dielectric, and a filling material is provided in the intermediate space between the dielectric and the rod, characterised in that the rod is an insulator and the filling material forms an inner electrode.
A vacuum pump arrangement for a milking plant comprising a main vacuum conduit, wherein the vacuum pump arrangement comprises at least two vacuum pump units for maintaining a system vacuum in the main vacuum conduit, each of the vacuum pump units comprising a pump, a vacuum tank connected to the pump by an intermediate conduit, at least a first inlet conduit connecting the vacuum tank to the main vacuum conduit, and a drainage extending from the vacuum tank and comprising a draining valve, wherein the pump is configured to suck air from the main vacuum conduit via the first inlet conduit, the vacuum tank and the intermediate conduit, wherein each of the vacuum pump units comprises a first closing valve provided on the first inlet conduit and configured to close the first inlet conduit in an automatic manner when the pump has been stopped. a pump, a vacuum tank connected to the pump by an intermediate conduit, at least a first inlet conduit connecting the vacuum tank to the main vacuum conduit, and a drainage extending from the vacuum tank and comprising a draining valve, wherein the pump is configured to suck air from the main vacuum conduit via the first inlet conduit, the vacuum tank and the intermediate conduit, wherein each of the vacuum pump units comprises a first closing valve provided on the first inlet conduit and configured to close the first inlet conduit in an automatic manner when the pump has been stopped.
A method for preparing optionally substituted diaryl alkylphosphonate comprising: providing at least one optionally substituted triarylphosphite; adding to the optionally substituted triarylphosphite at least one alkylating catalyst, whereby a triarylphosphite catalytic mixture is formed; heating the triarylphosphite catalytic mixture to a reaction temperature of from 210°C to 260°C; adding to the heated triarylphosphite catalytic mixture (i) at least one optionally substituted trialkylphosphite in a molar excess of 0.01% to 3.0% based on the optionally substituted triarylphosphite; and reacting the triarylphosphite catalytic mixture and the at least one optionally substituted trialkylphosphite to form the optionally substituted diaryl alkylphosphonate. providing at least one optionally substituted triarylphosphite; adding to the optionally substituted triarylphosphite at least one alkylating catalyst, whereby a triarylphosphite catalytic mixture is formed; heating the triarylphosphite catalytic mixture to a reaction temperature of from 210°C to 260°C; adding to the heated triarylphosphite catalytic mixture (i) at least one optionally substituted trialkylphosphite in a molar excess of 0.01% to 3.0% based on the optionally substituted triarylphosphite; and (i) at least one optionally substituted trialkylphosphite in a molar excess of 0.01% to 3.0% based on the optionally substituted triarylphosphite; and reacting the triarylphosphite catalytic mixture and the at least one optionally substituted trialkylphosphite to form the optionally substituted diaryl alkylphosphonate.
A method of producing an acoustic field from an array of transducers having known relative positions and orientations, the method comprising: - defining a plurality of control points which each have a known spatial relationship relative to the array of transducers; - assigning an amplitude to each control point; the method characterised by comprising: - computing a matrix containing elements which represent, for each of the control points, the effect that producing a modeled acoustic field having the assigned amplitude with a particular phase at the control point has on the consequential amplitude and phase of the modeled acoustic field at the other control points; - determining eigenvectors of the matrix, each eigenvector representing a set of phases and relative amplitudes of the modeled acoustic field at the control points; and - selecting one of the sets and operating the transducer array to cause one or more of the transducers to output an acoustic wave each having an initial amplitude and phase such that the phases and amplitudes of the resultant acoustic field at the control points correspond to the phases and relative amplitudes of the selected eigenvector set. - defining a plurality of control points which each have a known spatial relationship relative to the array of transducers; - assigning an amplitude to each control point; the method characterised by comprising: - computing a matrix containing elements which represent, for each of the control points, the effect that producing a modeled acoustic field having the assigned amplitude with a particular phase at the control point has on the consequential amplitude and phase of the modeled acoustic field at the other control points; - determining eigenvectors of the matrix, each eigenvector representing a set of phases and relative amplitudes of the modeled acoustic field at the control points; and - selecting one of the sets and operating the transducer array to cause one or more of the transducers to output an acoustic wave each having an initial amplitude and phase such that the phases and amplitudes of the resultant acoustic field at the control points correspond to the phases and relative amplitudes of the selected eigenvector set. - computing a matrix containing elements which represent, for each of the control points, the effect that producing a modeled acoustic field having the assigned amplitude with a particular phase at the control point has on the consequential amplitude and phase of the modeled acoustic field at the other control points; - determining eigenvectors of the matrix, each eigenvector representing a set of phases and relative amplitudes of the modeled acoustic field at the control points; and - selecting one of the sets and operating the transducer array to cause one or more of the transducers to output an acoustic wave each having an initial amplitude and phase such that the phases and amplitudes of the resultant acoustic field at the control points correspond to the phases and relative amplitudes of the selected eigenvector set.
A reference signal configuration method, wherein the method comprises: obtaining, by a base station, a first time-domain location of a reference signal of a first cell, and mapping the reference signal of the first cell to one or more resource elements based on the first time-domain location, wherein there is a time domain offset between the first time-domain location and a second time-domain location of a reference signal of a second cell, the first cell is a cell in which the base station is located, and a service area of the second cell is different from that of the first cell; and sending, by the base station, the reference signal of the first cell to a user equipment, UE; wherein the time domain offset between the first time-domain location of the reference signal of the first cell and the second time-domain location of the reference signal of the second cell is sent to the UE by the base station or is preconfigured on the UE; characterised in that the first time-domain location is determined based on a degree of interference between the first cell and the second cell; and wherein the first time-domain location is obtained by the base station by using a location of a first symbol, and the first symbol is a first symbol or a last symbol used for transmitting the reference signal of the first cell. obtaining, by a base station, a first time-domain location of a reference signal of a first cell, and mapping the reference signal of the first cell to one or more resource elements based on the first time-domain location, wherein there is a time domain offset between the first time-domain location and a second time-domain location of a reference signal of a second cell, the first cell is a cell in which the base station is located, and a service area of the second cell is different from that of the first cell; and sending, by the base station, the reference signal of the first cell to a user equipment, UE; wherein the time domain offset between the first time-domain location of the reference signal of the first cell and the second time-domain location of the reference signal of the second cell is sent to the UE by the base station or is preconfigured on the UE; characterised in that the first time-domain location is determined based on a degree of interference between the first cell and the second cell; and wherein the first time-domain location is obtained by the base station by using a location of a first symbol, and the first symbol is a first symbol or a last symbol used for transmitting the reference signal of the first cell.