mhurhangee/ep-ind-claims huggingface dataset:
Fire-resistant glazing comprising two glass sheets between which is an intumescent material based on hydrated alkali metal silicate, the two glass sheets being joined together at their periphery by an assembly of elements delimiting, between these two sheets, a space into which a liquid alkali metal silicate composition is poured so as to fill the space, the composition being chosen in order to result in a solid gel, this solidification optionally being accelerated by a rise in temperature or an exposure to UV or IR rays, the elements delimiting this space being leaktight to the liquid silicates composition, these elements comprising at least one rigid or semirigid spacer assembly determining the distance separating the two glass sheets, this spacer assembly being made, for part at least of the periphery of the glazing, of material essentially transparent to visible light, the light flux being either directly transmitted or partly at least scattered by this spacer assembly, and represents at least 50% of the incident flux, and in which the transparent material of the spacer is one of those comprising polymethacrylates (PMMAs), polycarbonates, polystyrenes, polyamides and polyesters.
A railway vehicle having a bogie (2, 21), wherein the bogie (2, 21) comprises: a bogie frame (3, 22) supported by axle springs disposed on axle boxes which rotatably support a wheel set; air springs disposed on both sides of the railway vehicle in a width direction of the bogie frame (3, 22); and an automatic height adjusting device provided for each of the air springs for maintaining a constant height of a vehicle body of the railway vehicle, wherein the vehicle body is supported by the air springs, characterised in that the axle boxes are disposed at positions closer to the center side of the railway vehicle in the width direction than the wheels attached to both sides of a shaft which constitutes a wheel set, and in that the location of a height detection position of the automatic height adjusting device is between an axial center of the air springs and an axial center of the axle springs. a bogie frame (3, 22) supported by axle springs disposed on axle boxes which rotatably support a wheel set; air springs disposed on both sides of the railway vehicle in a width direction of the bogie frame (3, 22); and an automatic height adjusting device provided for each of the air springs for maintaining a constant height of a vehicle body of the railway vehicle, wherein the vehicle body is supported by the air springs, characterised in that the axle boxes are disposed at positions closer to the center side of the railway vehicle in the width direction than the wheels attached to both sides of a shaft which constitutes a wheel set, and in that the location of a height detection position of the automatic height adjusting device is between an axial center of the air springs and an axial center of the axle springs.
An apparatus for cleaning a surface, particularly a wet extractor having a foot assembly supported by at least one wheel at a rearward portion thereof and at least one rotatable agitator at a forward portion thereof, wherein the foot assembly can be traversed over a surface to be cleaned in alternating forward and rearward movements, a fluid delivery system for delivering a cleaning fluid to the surface to be cleaned, a fluid recovery system for extracting fluid and debris from the surface to be cleaned and comprising an extraction path having a suction nozzle, a recovery tank in fluid communication with the suction nozzle, and a working air conduit in fluid communication with the suction nozzle and the recovery tank and characterized by: the suction nozzle comprising: a first nozzle portion in fluid communication with the working air conduit; and a nozzle extension selectively coupling the first nozzle portion with the surface to be cleaned and moveable between a first position in which the first nozzle portion is in fluid communication with the surface to be cleaned, and a second position in which the first nozzle portion is fluidly disconnected from the surface to be cleaned, wherein movement of the foot assembly in a rearward direction supports the forward portion of the foot assembly on at least the nozzle extension in the first position and movement of the foot assembly in a forward direction shifts support of the forward portion of the foot assembly off of the nozzle extension in the second position. the suction nozzle comprising: a first nozzle portion in fluid communication with the working air conduit; and a nozzle extension selectively coupling the first nozzle portion with the surface to be cleaned and moveable between a first position in which the first nozzle portion is in fluid communication with the surface to be cleaned, and a second position in which the first nozzle portion is fluidly disconnected from the surface to be cleaned, a first nozzle portion in fluid communication with the working air conduit; and a nozzle extension selectively coupling the first nozzle portion with the surface to be cleaned and moveable between a first position in which the first nozzle portion is in fluid communication with the surface to be cleaned, and a second position in which the first nozzle portion is fluidly disconnected from the surface to be cleaned, wherein movement of the foot assembly in a rearward direction supports the forward portion of the foot assembly on at least the nozzle extension in the first position and movement of the foot assembly in a forward direction shifts support of the forward portion of the foot assembly off of the nozzle extension in the second position.
A system for determining a water and a lipid level of skin, the system comprising: at least two electrodes suitable for contacting skin; and a signal generator configured to generate an electrical signal across the at least two electrodes at a first frequency in a first frequency range and at a second frequency in a second frequency range, wherein the first frequency range is a frequency range from 10 Hz to 1000 Hz, and wherein the second frequency range is a frequency range from 1 kHz to 50 kHz; or a frequency range from 1 MHz to 100 MHz; wherein the second frequency range is different to the first frequency range and the system is configured to: measure a permittivity between the at least two electrodes; and determine a water level of skin based on the measured permittivity when the frequency of the electrical signal is the first frequency; and determine a lipid level of skin based on the measured permittivity when the frequency of the electrical signal is the second frequency. at least two electrodes suitable for contacting skin; and a signal generator configured to generate an electrical signal across the at least two electrodes at a first frequency in a first frequency range and at a second frequency in a second frequency range, wherein the first frequency range is a frequency range from 10 Hz to 1000 Hz, and wherein the second frequency range is a frequency range from 1 kHz to 50 kHz; or a frequency range from 1 MHz to 100 MHz; wherein the second frequency range is different to the first frequency range and the system is configured to: measure a permittivity between the at least two electrodes; and determine a water level of skin based on the measured permittivity when the frequency of the electrical signal is the first frequency; and determine a lipid level of skin based on the measured permittivity when the frequency of the electrical signal is the second frequency. measure a permittivity between the at least two electrodes; and determine a water level of skin based on the measured permittivity when the frequency of the electrical signal is the first frequency; and determine a lipid level of skin based on the measured permittivity when the frequency of the electrical signal is the second frequency.
Automated system for detecting materials of the glass-ceramic type among a cullet, characterized in that it comprises at least one white light source and at least one monochromatic ultraviolet light source, each being oriented to emit in the same emission region, an image acquisition device configured to acquire an image of said emission area and an image processing device configured to process each of the images acquired by the image acquisition device, the image processing device comprising a colorimetric image processing module configured to provide the detection of glass-ceramic materials among other types of glass.
Two-component mortar composition comprising a resin component which contains at least one radically curable resin as a curable constituent, and comprising a hardener component which contains a curing agent for the radically curable resin of the resin component, the resin component and/or the hardener component containing at least CaO as a further constituent, characterized in that the CaO has a reactivity t 60 analogous to DIN EN 459-2 of more than 2 minutes.
A method for operating a printing machine having a plurality of developer stations to maintain developer material within in a predefined state, comprising: Monitoring developer material health at each developer station within the plurality of developer stations to detect unhealthy developer material; upon detecting unhealthy developer material in at least one of developer stations, identifying a toner purge state for each of the remaining developer stations; and performing a toner purge for the at least one developer station having unhealthy developer material and for the remaining developer stations based on the identified toner purge states, wherein the step of monitoring developer material health detects unhealthy developer material when the developer material in at least one developer station has a toner age greater than a first threshold, wherein the toner age is a mean residence time of toner in the developer station. Monitoring developer material health at each developer station within the plurality of developer stations to detect unhealthy developer material; upon detecting unhealthy developer material in at least one of developer stations, identifying a toner purge state for each of the remaining developer stations; and performing a toner purge for the at least one developer station having unhealthy developer material and for the remaining developer stations based on the identified toner purge states, wherein the step of monitoring developer material health detects unhealthy developer material when the developer material in at least one developer station has a toner age greater than a first threshold, wherein the toner age is a mean residence time of toner in the developer station.
A method for controlling an extrusion system for additive manufacturing, the extrusion system being configured to perform at least one print job in which a three-dimensional structure is manufactured in parallel, wherein the extrusion system includes a controller and an extrusion unit having a plurality of nozzle heads by means of which filaments of build material are deposited in a predetermined interconnected arrangement for concurrently forming individual three-dimensional structures in parallel, wherein each nozzle head includes one or more nozzle outlets through which the build material is extruded, characterized in that the method includes monitoring an operation of each of the plurality of nozzle heads during the print job in order to detect one or more operational failure events linked to one or more failing nozzle heads, wherein, in case one or more operational failure events are detected, the controller is configured to perform the steps of: determining a first value indicative of an average print time for finishing a number of three-dimensional structures when the print job is continued using one or more non-failing nozzle heads of the plurality of nozzle heads which are still operational, determining a second value indicative of an average print time for finishing the number of three-dimensional structures when the print job is promptly interrupted and a new print job is initiated with the one or more failing nozzle heads of the plurality of nozzles heads being repaired, and restarting the print job with the one or more failing nozzle heads being repaired, when the second value is smaller than the first value. determining a first value indicative of an average print time for finishing a number of three-dimensional structures when the print job is continued using one or more non-failing nozzle heads of the plurality of nozzle heads which are still operational, determining a second value indicative of an average print time for finishing the number of three-dimensional structures when the print job is promptly interrupted and a new print job is initiated with the one or more failing nozzle heads of the plurality of nozzles heads being repaired, and restarting the print job with the one or more failing nozzle heads being repaired, when the second value is smaller than the first value.
A control device for a door-locking mechanism, comprising a control shaft capable of driving an axial rotary input of a locking mechanism, a manual actuation button, configured for being able to be manipulated between two extreme angular positions defining a travel of the button of less than or equal to 180°, and a transmission device coupled between the manual actuation button and the control shaft, configured so that the actuation of the button from one to the other of its extreme angular positions drives the control shaft on at least one turn, wherein the transmission device comprises a planetary gear set, and wherein the crown of the planetary gear set comprises at least one satellite abutment configured to oppose the displacement of at least one satellite sprocket.
A method for applying a vacuum based pressure on an uncured composite structure, the method comprising: bonding membranes (106, 216) to a boundary (108, 220) of a caul (104, 218, 1602, 1702), wherein the membranes (106, 216) include positive features that define vacuum channels; and splicing the membranes (106, 216) to each other, wherein the positive features that define the vacuum channels in the membranes (106, 216) are aligned to each other during splicing of the membranes (106, 216), the membranes (106, 216) spliced to each other and bonded to the caul (104, 218, 1602, 1702) to form an integrated caul (100, 212, 1600, 1700), and the integrated caul (100, 212, 1600, 1700) applies a pressure on the uncured composite structure during operation of the integrated caul (100, 212, 1600, 1700). bonding membranes (106, 216) to a boundary (108, 220) of a caul (104, 218, 1602, 1702), wherein the membranes (106, 216) include positive features that define vacuum channels; and splicing the membranes (106, 216) to each other, wherein the positive features that define the vacuum channels in the membranes (106, 216) are aligned to each other during splicing of the membranes (106, 216), the membranes (106, 216) spliced to each other and bonded to the caul (104, 218, 1602, 1702) to form an integrated caul (100, 212, 1600, 1700), and the integrated caul (100, 212, 1600, 1700) applies a pressure on the uncured composite structure during operation of the integrated caul (100, 212, 1600, 1700).
A method for data transmission, comprising: detecting, by a terminal device, Downlink Control Information, DCI, transmitted by a network device and configured to schedule data; determining, by the terminal device, a numerology configured to transmit the data according to the detected DCI; and by the terminal device, detecting the data transmitted by the network device or transmitting the data to the network device, according to the numerology and the DCI, wherein determining, by the terminal device, the numerology configured to transmit the data according to the detected DCI comprises: determining, by the terminal device, the numerology configured to transmit the data from multiple predefined basic numerologies according to a Cyclic Redundancy Check, CRC, code of the detected DCI, wherein the numerology comprises at least one of the following parameters: a number of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a Transmission Time Interval, TTI, a subcarrier spacing, a number of subcarriers under a specific bandwidth, a number of subcarriers in a Physical Resource Block, PRB, an OFDM symbol length, a number of points of Fourier transform or inverse Fourier transform configured to generate an OFDM signal, a number of TTIs in a specific time length, and a length of a signal prefix. detecting, by a terminal device, Downlink Control Information, DCI, transmitted by a network device and configured to schedule data; determining, by the terminal device, a numerology configured to transmit the data according to the detected DCI; and by the terminal device, detecting the data transmitted by the network device or transmitting the data to the network device, according to the numerology and the DCI, wherein determining, by the terminal device, the numerology configured to transmit the data according to the detected DCI comprises: determining, by the terminal device, the numerology configured to transmit the data from multiple predefined basic numerologies according to a Cyclic Redundancy Check, CRC, code of the detected DCI, wherein the numerology comprises at least one of the following parameters: a number of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a Transmission Time Interval, TTI, a subcarrier spacing, a number of subcarriers under a specific bandwidth, a number of subcarriers in a Physical Resource Block, PRB, an OFDM symbol length, a number of points of Fourier transform or inverse Fourier transform configured to generate an OFDM signal, a number of TTIs in a specific time length, and a length of a signal prefix. a number of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a Transmission Time Interval, TTI, a subcarrier spacing, a number of subcarriers under a specific bandwidth, a number of subcarriers in a Physical Resource Block, PRB, an OFDM symbol length, a number of points of Fourier transform or inverse Fourier transform configured to generate an OFDM signal, a number of TTIs in a specific time length, and a length of a signal prefix.
A method of controlling use of data, the data being stored in a service provider system in a manner which is accessible to a trusted second security context in the service provider system but secure from the rest of the service provider system, wherein an access control list specifying that a valid use credential must be presented in order to grant a first type of use of the data is stored with the data, wherein the data comprises a cryptographic key K tenant, and wherein the access control list specifies that the cryptographic key, K tenant can be stored outside the second security context only when encrypted for storage by a key which cannot leave the second security context, the method comprising: generating a use credential in a first security context, wherein the use credential comprises: information from which the data corresponding to the use credential can be identified; information from which the expiry of the use credential can be determined; issuing the use credential and information from which the origin of the use credential can be validated; validating the use credential with respect to the access control list, and validating that the use credential has not expired at the second security context; granting the first type of use of the data, in the second security context, on the condition that the use credential is valid and not expired. generating a use credential in a first security context, wherein the use credential comprises: information from which the data corresponding to the use credential can be identified; information from which the expiry of the use credential can be determined; information from which the data corresponding to the use credential can be identified; information from which the expiry of the use credential can be determined; issuing the use credential and information from which the origin of the use credential can be validated; validating the use credential with respect to the access control list, and validating that the use credential has not expired at the second security context; granting the first type of use of the data, in the second security context, on the condition that the use credential is valid and not expired.
A method for preparing a composition enriched in a crystalline form of compound 61501b, wherein an X-ray powder diffraction pattern of the crystalline form of compound 61501b has peaks at the following 2θ angles: 7.2° ± 0.3°, 9.6° ± 0.3° and 23.1° ± 0.3°, comprising the following steps: Reacting a compound with a compound under alkaline conditions, and then reacting with a compound to obtain a compound 61502: and Obtaining the composition enriched in the crystalline form of compound 61501b by isomer separation of the compound 61502, the isomer separation comprising: a first step of dissolving the compound 61502 in ethyl acetate and stirring for dissolving; and a second step of adding petroleum ether dropwise to the above solution system, and crystallizing, thereby giving the compound 61501b, wherein the volume ratio of ethyl acetate to petroleum ether is 1:4 to 6 (v/v), 1:3 (v/v), or 1:2 (v/v); and wherein the amount ratio of the compound 61502 to ethyl acetate is 1:1.25 to 2.5 (w/v), or 1:10 (w/v), Reacting a compound with a compound under alkaline conditions, and then reacting with a compound to obtain a compound 61502: and Obtaining the composition enriched in the crystalline form of compound 61501b by isomer separation of the compound 61502, the isomer separation comprising: a first step of dissolving the compound 61502 in ethyl acetate and stirring for dissolving; and a second step of adding petroleum ether dropwise to the above solution system, and crystallizing, thereby giving the compound 61501b, wherein the volume ratio of ethyl acetate to petroleum ether is 1:4 to 6 (v/v), 1:3 (v/v), or 1:2 (v/v); and wherein the amount ratio of the compound 61502 to ethyl acetate is 1:1.25 to 2.5 (w/v), or 1:10 (w/v),
A system for modifying an intraocular device (30, 80) having a surface region and one or more subsurface regions, the surface region having a mechanical property, the system comprising: a laser assembly (14, 16, 20, 26, 28) configured to output a pulsed laser beam; and a processing unit coupled to the laser assembly (14, 16, 20, 26, 28), the processing unit configured to control the laser assembly (14, 16, 20, 26, 28) to direct the pulsed laser beam at the one or more subsurface regions, the one or more subsurface regions being structurally altered in response to the pulsed laser beam while maintaining the mechanical property of the surface region, the intraocular device (30, 80) having an accommodative capability associated therewith, characterized in that the accommodative capability is increased based on the structural alteration of the one or more regions. a laser assembly (14, 16, 20, 26, 28) configured to output a pulsed laser beam; and a processing unit coupled to the laser assembly (14, 16, 20, 26, 28), the processing unit configured to control the laser assembly (14, 16, 20, 26, 28) to direct the pulsed laser beam at the one or more subsurface regions, the one or more subsurface regions being structurally altered in response to the pulsed laser beam while maintaining the mechanical property of the surface region,