mhurhangee/ep-ind-claims huggingface dataset:
Container for pressurized gases, to contain and transport gases under high pressure, said container comprising an inner metal sleeve formed by a hollow cylinder with ends finishing in a geodesic shape, on the end of one of which is an opening in which to install a corresponding valve, wherein the inner metal sleeve is completely coated with a composite casing, the assembly formed by the inner metal sleeve and composite casing having a protective sheath of thermoplastic material with a certain elastomer grade; wherein said protective sheath has circular sections alternating with hexagonal sections, the upper end of the sheath incorporating a pair of tabs that engage grooves incorporated in a metal ring inserted in the inner metal sleeve; wherein said protective sheath has a bottom part coupled by a plug connection, with interposing inner and outer securing clips; said bottom part includes a first cross-shaped groove in which corresponding silent-blocks of rubber material or the like are placed to establish a shock-absorbing means on the bottom part of the container assembly, the protective sheath being provided on the bottom thereof with an external clip that complements an internal clip provided on the bottom part, said clips (16, 17) being in correspondence with each edge of the hexagonal sections of the protective sheath itself; and wherein the protective sheath further comprises a metal stand for support on the floor, which includes internally in the base thereof a second cross-shaped groove that engages the complementary first cross-shaped groove of the bottom part of the protective sheath, preventing the two parts from rotating about each other.
Control system for matching measured humidity values with humidity values stored in a database, comprising - at least one device for measuring humidity, comprising - at least one sensor for measuring humidity, wherein the sensor - At least one capacitor having at least two electrodes (10, 11) which are arranged, in particular in a horizontal direction, along one another and on a carrier material, in particular a flexible carrier material, at least one dielectric layer being arranged between the electrodes (10, 11), i wherein at least one at least partially liquid-permeable and/or liquid-absorbing damp layer is arranged at least in places on a side of at least one electrode (10, 11) and/or the dielectric layer facing away from the carrier material, the at least one electrode (10, 11) and/or the dielectric layer thus being arranged in a transverse direction between the carrier material and the damp layer, so that a capacitance is at least partially changed by the liquid at least partially impinging on the dielectric layer, a processing unit being set up and provided for measuring and/or storing measured values of the sensor, so that a capacitive humidity sensor is produced, wherein the processing unit transmits the data measured by the sensor to a central CPU of the control system, this data being processed by the processing unit, wherein the central CPU and/or the processing unit is set up and provided for this purpose compares this data, i.e. the humidity values, with corresponding values stored in a database or sent to the database, and, preferably only if these stored values or corresponding value ranges match, the central CPU sends an enable signal to a matching device of the control system, which then enables a utilization object for use. - at least one device for measuring humidity, comprising - at least one sensor for measuring humidity, wherein the sensor - At least one capacitor having at least two electrodes (10, 11) which are arranged, in particular in a horizontal direction, along one another and on a carrier material, in particular a flexible carrier material, at least one dielectric layer being arranged between the electrodes (10, 11), i wherein at least one at least partially liquid-permeable and/or liquid-absorbing damp layer is arranged at least in places on a side of at least one electrode (10, 11) and/or the dielectric layer facing away from the carrier material, the at least one electrode (10, 11) and/or the dielectric layer thus being arranged in a transverse direction between the carrier material and the damp layer, so that a capacitance is at least partially changed by the liquid at least partially impinging on the dielectric layer, a processing unit being set up and provided for measuring and/or storing measured values of the sensor, so that a capacitive humidity sensor is produced, wherein the processing unit transmits the data measured by the sensor to a central CPU of the control system, this data being processed by the processing unit, wherein
A method at a mobile device (102, 302, 304, 306, and/or 308), comprising: obtaining passive measurements of signals transmitted from terrestrial transmitters; obtaining a first estimated location of said mobile device (102, 302, 304, 306, and/or 308) based, at least in part, on said passive measurements and in the absence of active measurements; said active measurements comprising a measurement obtained via communication between said mobile device and terrestrial transmitters; and determining whether the first estimated location is of sufficient quality based, at least in part, on said first estimated location and a spatial configuration of said terrestrial transmitters; and if the first estimated location is of sufficient quality, the first estimated location is used as the location of the mobile device and if it is determined that the first location is not of sufficient quality initiating said active measurements for obtaining a second estimated location of said mobile device. obtaining passive measurements of signals transmitted from terrestrial transmitters; obtaining a first estimated location of said mobile device (102, 302, 304, 306, and/or 308) based, at least in part, on said passive measurements and in the absence of active measurements; said active measurements comprising a measurement obtained via communication between said mobile device and terrestrial transmitters; and determining whether the first estimated location is of sufficient quality based, at least in part, on said first estimated location and a spatial configuration of said terrestrial transmitters; and if the first estimated location is of sufficient quality, the first estimated location is used as the location of the mobile device and if it is determined that the first location is not of sufficient quality initiating said
Multimode optical fiber comprising an optical core and an optical cladding surrounding the optical core, the optical core having a refractive graded-index profile, the optical cladding comprising: - an inner layer surrounding said optical core, - an intermediate layer, called "depressed trench", surrounding said inner layer, - an outer layer surrounding said depressed trench and having a constant refractive index, said depressed trench having a width W and a negative refractive index difference Δn t with respect to the outer layer, characterized in that said depressed trench is arranged so as to satisfy the following inequality: 0.585677 − 114.681 × S + 13.7287 × S 2 + 18.7343 × S × W − 4.61112 × S × Δ n t. 10 3 − 0.913789 × W × Δ n t. 10 3 + 2 × W × Δ n t. 10 3 < − 30 wherein: S is the width of the inner layer, which is comprised between 0.6 μ m and 1.6 μ m; Δn t is comprised between -8.10 -3 and -4.10 -3; W × Δ n t.10 3 is lower than -25 μ m; and wherein the outer end of said depressed trench is separated from the center of the optical fiber of a radius r t lower than 32 μ m. - an inner layer surrounding said optical core, - an intermediate layer, called "depressed trench", surrounding said inner layer, - an outer layer surrounding said depressed trench and having a constant refractive index, S is the width of the inner layer, which is comprised between 0.6 μ m and 1.6 μ m; Δn t is comprised between -8.10 -3 and -4.10 -3; W × Δ n t.10 3 is lower than -25 μ m; and wherein the outer end of said depressed trench is separated from the center of the optical fiber of a radius r t lower than 32 μ m.
A hermetic refrigerant compressor comprising a sealed container in which lubricating oil is stored, the sealed container accommodating an electric element and a compression element, the compression element being driven by the electric element and configured to compress a refrigerant, wherein the lubricating oil has a kinematic viscosity in a range of 1 mm 2 /S to 7 mm 2 /S at 40°C, has a mass average molecular weight in a range of 150 to 400, and contains 0.5% by mass or more of a high molecular weight component, the high molecular weight component has a mass molecular weight of greater than or equal to 500, the compression element includes: a shaft part that is a crankshaft including a main shaft and an eccentric shaft; and a bearing part that pivotally supports the shaft part, the bearing part including a main bearing and an eccentric bearing, the main bearing pivotally supporting the main shaft, the eccentric bearing pivotally supporting the eccentric shaft, the main shaft includes a sliding surface that slides on the main bearing, the sliding surface being divided into a plurality of sliding surfaces, wherein a length of one of the sliding surfaces in the axial direction, the one sliding surface having a least length in the axial direction among the plurality of sliding surfaces, is the single sliding length L, and a ratio L / D of the single sliding length L to an external diameter D of the main shaft is less than or equal to 2.0. the lubricating oil has a kinematic viscosity in a range of 1 mm 2 /S to 7 mm 2 /S at 40°C, has a mass average molecular weight in a range of 150 to 400, and contains 0.5% by mass or more of a high molecular weight component, the high molecular weight component has a mass molecular weight of greater than or equal to 500, the compression element includes: a shaft part that is a crankshaft including a main shaft and an eccentric shaft; and a bearing part that pivotally supports the shaft part, the bearing part including a main bearing and an eccentric bearing, the main bearing pivotally supporting the main shaft, the eccentric bearing pivotally supporting the eccentric shaft, a shaft part that is a crankshaft including a main shaft and an eccentric shaft; and a bearing part that pivotally supports the shaft part, the bearing part including a main bearing and an eccentric bearing, the main bearing pivotally supporting the main shaft, the eccentric bearing pivotally supporting the eccentric shaft, the main shaft includes a sliding surface that slides on the main bearing, the sliding surface being divided into a plurality of sliding surfaces, wherein a length of one of the sliding surfaces in the axial direction, the one sliding surface having a least length in the axial direction among the plurality of sliding surfaces, is the single sliding length L, and a ratio L / D of the single sliding length L to an external diameter D of the main shaft is less than or equal to 2.0.
Microneedle applicator for applying a fluid product on the skin and for making it penetrate into the skin, the applicator defining a longitudinal axis X and comprising: - an application face (C11; C21; C31) provided with at least one fluid product outlet (C110; C210; C310) and with several microneedles (C111; C211; C311), - a motor for making the microneedles (C111; C211; C311) vibrate, - at least one fluid product reservoir (C13; C24; C34) connected to the fluid product outlet (C110; C210; C310), - an actuation member (111; I21; I31) for conveying the fluid product from the fluid product reservoir (C13; C24; C34) to the fluid product outlet (C110; C210; C310), characterised in that it comprises three distinct modules (M, C1; C2; C3, I1; I2; I3) axially connected to one another, namely: - a motor module housing the motor and accessories for making the motor function, - a cartridge module (C1; C2; C3) housing said at least one fluid product reservoir (C13; C24; C34) and forming the application face (C11; C21; C31), - an intermediate module (11; I2; I3) connected to the motor module and removably connected to the cartridge module (C1; C2; C3), the intermediate module (11; I2; I3) comprising the actuation member (111; I21; I31) and transmission means (115; I25) for transmitting the vibrations generated by the motor of the motor module to the microneedles (C111; C211; C311) of the cartridge module (C1; C2; C3). - an application face (C11; C21; C31) provided with at least one fluid product outlet (C110; C210; C310) and with several microneedles (C111; C211; C311), - a motor for making the microneedles (C111; C211; C311) vibrate, - at least one fluid product reservoir (C13; C24; C34) connected to the fluid product outlet (C110; C210; C310), - an actuation member (111; I21; I31) for conveying the fluid product from the fluid product reservoir (C13; C24; C34) to the fluid product outlet (C110; C210; C310), - a motor module housing the motor and accessories for making the motor function, - a cartridge module (C1; C2; C3) housing said at least one fluid product reservoir (C13; C24; C34) and forming the application face (C11; C21; C31), - an intermediate module (11; I2; I3) connected to the motor module and removably connected to the cartridge module (C1; C2; C3), the intermediate module (11; I2; I3) comprising the actuation member (111; I21; I31) and transmission means (115; I25) for transmitting the vibrations generated by the motor of the motor module to the microneedles (C111; C211; C311) of the cartridge module (C1; C2; C3).
A device for radiation absorption measurements, comprising, a radiation source (4, 16) emitting electromagnetic radiation having a wavelength in the interval 0.2 μm-20 μm, a detector detecting said electromagnetic radiation, when in a measurement mode at least a portion of said radiation has passed through a medium and been reflected by a surface at a distance from said radiation source (4, 16), before reaching said detector, said device further comprises a fluid calibration cell, which is adapted to be arranged in the path of the electromagnetic radiation between said radiation source (4, 16) and said detector, wherein said fluid calibration cell is automatically movable and adapted to be arranged, either in a first position, wherein said fluid calibration cell is introduced in the path of the electromagnetic radiation such that said radiation passes through said fluid calibration cell before reaching said detector, or in a second, measurement mode position, wherein said fluid calibration cell does not affect the path of the electromagnetic radiation such that said radiation reaches said detector without passing through said fluid calibration cell, characterised in that said device further comprising a first reflective element, wherein said first reflective element is automatically movable and adapted to be arranged, either in a first position, wherein said first reflective element is introduced in the path of the electromagnetic radiation such that said radiation from said radiation source (4, 16) reaches said first reflective element, thereby preventing said radiation from reaching said surface and wherein said radiation is directed through said fluid calibration cell when in said first position before reaching said detector, or in a second position, wherein said first reflective element does not affect the path of the electromagnetic radiation such that said radiation from said radiation source (4, 16) does not reach said first reflective element.
System comprising a hairstyling tool and a remote entity (2,3) which can be connected to said hairstyling tool by a wireless connection, the hairstyling tool being a comb or a hairbrush, and comprising: - a handle and a body, provided with teeth and/or hairs, - a battery for storing electricity, - at least one movement sensor or accelerometer, - at least one force sensor suitable for measuring a torsional or bending stress exerted between the handle held by a user and the body engaged with the hair of a user, - an electronic control unit, configured to capture and format signals provided by the movement sensor, and configured to format torsional or bending stress exerted provided by the force sensor, - at least one wireless communication means suitable for data transmission to the remote entity (2,3), whereby information on the movements executed by the hairstyling tool can be transmitted to the remote entity (2,3), characterized in that the entity (2,3) is configured to state recommendations for hair care or products to be applied to the hair concerned, and to provide these recommendations to the user of the hairstyling tool as a short message, email or other to the user. - a handle and a body, provided with teeth and/or hairs, - a battery for storing electricity, - at least one movement sensor or accelerometer, - at least one force sensor suitable for measuring a torsional or bending stress exerted between the handle held by a user and the body engaged with the hair of a user, - an electronic control unit, configured to capture and format signals provided by the movement sensor, and configured to format torsional or bending stress exerted provided by the force sensor, - at least one wireless communication means suitable for data transmission to the remote entity (2,3), whereby information on the movements executed by the hairstyling tool can be transmitted to the remote entity (2,3), characterized in that the entity (2,3) is configured to state recommendations for hair care or products to be applied to the hair concerned, and to provide these recommendations to the user of the hairstyling tool as a short message, email or other to the user.
Dishwasher having at least one wash container for receiving items to be washed, with at least one spray apparatus (4, 5) for applying wash liquor to the items to be washed in the interior of the wash container and with a drying device (7, 8, 9, 10, 11) for drying the items to be washed, wherein an air flow for drying the items to be washed is fed from the drying device (7, 8, 9, 10, 11) into the wash container via the spray apparatus (4, 5), wherein the drying device (7, 8, 9, 10, 11) is arranged inside the dishwasher and exclusively circulates the air located in the wash container preferably with the aid of a fan, and wherein at least one wall of the wash container operates as a condensation surface on which the moisture within the air condenses.
Method for producing final patterns on the surface of a substrate by self-assembly of a block copolymer, comprising the following steps: - forming an assembly guide on first and second areas (20a, 20b) of the substrate, the assembly guide comprising a layer in which openings are formed and having an opening ratio in the first area greater than that of the second area; - depositing a block copolymer layer on the substrate, such that the block copolymer layer entirely fills the openings of the assembly guide and forms an over-thickness on the assembly guide; - assembling the block copolymer, resulting in an portion of the block copolymer layer located inside the openings of the assembly guide and organised according to a desired pattern; - thinning uniformly the block copolymer layer, until a thickness corresponding to the organised portion of the block copolymer layer is reached; - eliminating one of the phases of the assembled block copolymer, resulting in a plurality of initial patterns extending into the block copolymer layer; and - transferring the initial patterns of the block copolymer layer into the substrate to form said final patterns. - forming an assembly guide on first and second areas (20a, 20b) of the substrate, the assembly guide comprising a layer in which openings are formed and having an opening ratio in the first area greater than that of the second area; - depositing a block copolymer layer on the substrate, such that the block copolymer layer entirely fills the openings of the assembly guide and forms an over-thickness on the assembly guide; - assembling the block copolymer, resulting in an portion of the block copolymer layer located inside the openings of the assembly guide and organised according to a desired pattern; - thinning uniformly the block copolymer layer, until a thickness corresponding to the organised portion of the block copolymer layer is reached; - eliminating one of the phases of the assembled block copolymer, resulting in a plurality of initial patterns extending into the block copolymer layer; and - transferring the initial patterns of the block copolymer layer into the substrate to form said final patterns.
A metallurgical lance to extend into a vessel for injecting solid particulate material into a molten material held within the vessel, the lance comprising: a central core tube through which to pass the solid particulate material; an annular cooling jacket surrounding the central core tube throughout a substantial part of its length and provided with internal water flow passages (46,47) for flow of cooling water therethrough; and a mounting structure for mounting the lance on the vessel, the mounting structure having an outer part that is double walled with water flow passages formed between the double walls (60A,60B) for flow of cooling water therethrough, the outer part being disposed about the annular cooling jacket at a position that is spaced back from the forward end of the lance and wherein the outer part is spaced radially outwardly from the annular cooling jacket by front and rear end connectors so as to form an void between the outer part and the annular cooling jacket, characterized in that the outer part is an outer annular part so as to form an annular void between the outer annular part and said annular cooling jacket, and an annular space between the double walls of the outer annular part is partitioned to form the water flow passages. a central core tube through which to pass the solid particulate material; an annular cooling jacket surrounding the central core tube throughout a substantial part of its length and provided with internal water flow passages (46,47) for flow of cooling water therethrough; and a mounting structure for mounting the lance on the vessel, the mounting structure having an outer part that is double walled with water flow passages formed between the double walls (60A,60B) for flow of cooling water therethrough, the outer part being disposed about the annular cooling jacket at a position that is spaced back from the forward end of the lance and wherein the outer part is spaced radially outwardly from the annular cooling jacket by front and rear end connectors so as to form an void between the outer part and the annular cooling jacket,