mhurhangee/ep-ind-claims huggingface dataset:
Metallic strength member rubberized with a sulfur-crosslinkable, essentially cobalt-free rubberization mixture, wherein the metallic strength member is a steel cord containing one or more filaments, - wherein the filaments comprise a steel substrate filament and a coating that partly or completely covers the steel substrate filament, - wherein the coating comprises brass consisting of copper and zinc, and - wherein the coating is enriched with iron in the form of particles having a size between 10 and 10 000 nm in the brass, characterized in that the rubberization mixture contains 0.5 to 3 phr (parts by weight, based on 100 parts by weight of all rubbers in the mixture) of at least one sulfenimide accelerator and/or at least one dibenzylamine-based sulfenamide accelerator. wherein the metallic strength member is a steel cord containing one or more filaments, - wherein the filaments comprise a steel substrate filament and a coating that partly or completely covers the steel substrate filament, - wherein the coating comprises brass consisting of copper and zinc, and - wherein the coating is enriched with iron in the form of particles having a size between 10 and 10 000 nm in the brass, - wherein the filaments comprise a steel substrate filament and a coating that partly or completely covers the steel substrate filament, - wherein the coating comprises brass consisting of copper and zinc, and - wherein the coating is enriched with iron in the form of particles having a size between 10 and 10 000 nm in the brass, characterized in that the rubberization mixture contains 0.5 to 3 phr (parts by weight, based on 100 parts by weight of all rubbers in the mixture) of at least one sulfenimide accelerator and/or at least one dibenzylamine-based sulfenamide accelerator.
Computer implemented method for authenticating an instrument for processing a biological sample or reagent, comprising: - generating a PIN code by the instrument; - registering the PIN code and identification data associated with the instrument in a database of an electronic device, wherein the PIN code and identification data are entered by means of an input device separate from the instrument; - verifying the PIN code and identification data at the electronic device; - transmitting an authentication certificate to the instrument if the PIN code and identification data correspond to target data stored in the database; - installing the authentication certificate on the instrument, whereby the instrument is registered with the electronic device; and - using the authentication certificate for an encrypted communication between the instrument and the electronic device. - generating a PIN code by the instrument; - registering the PIN code and identification data associated with the instrument in a database of an electronic device, wherein the PIN code and identification data are entered by means of an input device separate from the instrument; - verifying the PIN code and identification data at the electronic device; - transmitting an authentication certificate to the instrument if the PIN code and identification data correspond to target data stored in the database; - installing the authentication certificate on the instrument, whereby the instrument is registered with the electronic device; and - using the authentication certificate for an encrypted communication between the instrument and the electronic device.
An imaging sensor, comprising: a set of charge-coupled device, CCD, sub-arrays, wherein each sub-array comprises pixels arranged in columns and rows, and each pixel being arranged to accumulate an electric charge proportional to an intensity of light incident on the pixel and wherein a plurality of CCD sub-arrays are associated with identical filters and are configured to detect the same wavelength band and are configured to have different number of rows (Ns), wherein the number of rows of the plurality of CCD sub-arrays is logarithmically increasing; a time delay and integration, TDI, clocking circuitry for controlling and timing transfer of accumulated electric charges between rows of pixels in a column direction in order to integrate the accumulated electric charges in each column of pixels; wherein each CCD sub-array further comprises a readout row (R T, R B) for converting the integrated electric charge of each column of pixels into voltage or current, wherein the readout row (R T, R B) comprises transistors enabling readout of the signal by the readout block; and a readout block which is arranged to receive input from selected readout rows (R T, R B) and convert the input into digital domain or convert the input to a combined representation of pixel values based on the set of CCD sub-arrays. a set of charge-coupled device, CCD, sub-arrays, wherein each sub-array comprises pixels arranged in columns and rows, and each pixel being arranged to accumulate an electric charge proportional to an intensity of light incident on the pixel and wherein a plurality of CCD sub-arrays are associated with identical filters and are configured to detect the same wavelength band and are configured to have different number of rows (Ns), wherein the number of rows of the plurality of CCD sub-arrays is logarithmically increasing; a time delay and integration, TDI, clocking circuitry for controlling and timing transfer of accumulated electric charges between rows of pixels in a column direction in order to integrate the accumulated electric charges in each column of pixels; wherein each CCD sub-array further comprises a readout row (R T, R B) for converting the integrated electric charge of each column of pixels into voltage or current, wherein the readout row (R T, R B) comprises transistors enabling readout of the signal by the readout block; and a readout block which is arranged to receive input from selected readout rows (R T, R B) and convert the input into digital domain or convert the input to a combined representation of pixel values based on the set of CCD sub-arrays.
A method for wireless communications, performed by an apparatus, comprising: receiving a plurality of channel state information reference signals, CSI-RSs, wherein a plurality of CSI-RS resources each correspond to a set of the CSI-RSs and a set of antenna ports used in transmitting the corresponding set of CSI-RSs; assuming a plurality of first transmissions on a plurality of time-frequency resource units, each first transmission comprising a plurality of layers and using a plurality of the antenna ports associated with one of the plurality of CSI-RS resources, wherein different subsets of the antenna ports are used for different time-frequency resource units in one transmission; determining a common rank for the assumed plurality of first transmissions and a plurality of first channel quality metrics, wherein each first channel quality metric is based on a corresponding first transmission; determining a plurality of first channel quality indicators, CQIs, each first CQI indicating one of the plurality of first channel quality metrics; and transmitting a best set of common rank and of the plurality of first CQIs. receiving a plurality of channel state information reference signals, CSI-RSs, wherein a plurality of CSI-RS resources each correspond to a set of the CSI-RSs and a set of antenna ports used in transmitting the corresponding set of CSI-RSs; assuming a plurality of first transmissions on a plurality of time-frequency resource units, each first transmission comprising a plurality of layers and using a plurality of the antenna ports associated with one of the plurality of CSI-RS resources, wherein different subsets of the antenna ports are used for different time-frequency resource units in one transmission; determining a common rank for the assumed plurality of first transmissions and a plurality of first channel quality metrics, wherein each first channel quality metric is based on a corresponding first transmission; determining a plurality of first channel quality indicators, CQIs, each first CQI indicating one of the plurality of first channel quality metrics; and transmitting a best set of common rank and of the plurality of first CQIs.
A computer system for providing secure control of a computer, the system comprising an insecure computer and a secure computer: the insecure computer having a dedicated video output with a hardware interface, and configured to transmit, by the video output, in the form of uncompressed bitmap data, a screen image of its operating system interface to the secure computer over a first connection, and to receive instructions for controlling the insecure computer from the secure computer over a second connection; the secure computer being configured to receive the video output of the insecure computer over the first connection and to transmit instructions for controlling the insecure computer over the second connection; the system further comprising a unidirectional dataflow enforcer configured to enforce unidirectional dataflow between the secure computer and the insecure computer over the second connection, such that dataflow from the secure computer over the second connection to the insecure computer is allowed, but dataflow from the insecure computer to the secure computer over the second connection is prevented; wherein the secure computer is further configured to transmit the screen image of the operating system interface of the insecure computer to a second secure computer over a third connection, and to receive instructions for controlling the insecure computer from the second secure computer over the third connection; and wherein the secure computer is configured to compress the screen image before forwarding it to the second secure computer. the insecure computer having a dedicated video output with a hardware interface, and configured to transmit, by the video output, in the form of uncompressed bitmap data, a screen image of its operating system interface to the secure computer over a first connection, and to receive instructions for controlling the insecure computer from the secure computer over a second connection; the secure computer being configured to receive the video output of the insecure computer over the first connection and to transmit instructions for controlling the insecure computer over the second connection; the system further comprising a unidirectional dataflow enforcer configured to enforce unidirectional dataflow between the secure computer and the insecure computer over the second connection, such that dataflow from the secure computer over the second connection to the insecure computer is allowed, but dataflow from the insecure computer to the secure computer over the second connection is prevented; wherein the secure computer is further configured to transmit the screen image of the operating system interface of the insecure computer to a second secure computer over a third connection, and to receive instructions for controlling the insecure computer from the second secure computer over the third connection; and wherein the secure computer is configured to compress the screen image before forwarding it to the second secure computer.
A non-transitory computer-readable storage medium comprising instructions stored thereon that, when executed by at least one processor of a computer system comprising a keyboard and a tactile input device, are configured to cause the computer system to at least: determine whether a pre-tactile keyboard input was received within a pre-tactile input threshold time before receiving a tactile input device input; monitor for a post-tactile keyboard input within a post-tactile input threshold time after receiving the tactile input device input; characterized by ignore the tactile input device input if: the pre-tactile keyboard input is received within the pre-tactile input threshold time before receiving the tactile input device input; and the post-tactile keyboard input is received within the post-tactile input threshold time after receiving the tactile input device input; and recognize the tactile input device input if: the pre-tactile keyboard input is not received within the pre-tactile input threshold time before receiving the tactile input device input; or the post-tactile keyboard input is not received within the post-tactile input threshold time after receiving the tactile input device input. determine whether a pre-tactile keyboard input was received within a pre-tactile input threshold time before receiving a tactile input device input; monitor for a post-tactile keyboard input within a post-tactile input threshold time after receiving the tactile input device input; characterized by ignore the tactile input device input if: the pre-tactile keyboard input is received within the pre-tactile input threshold time before receiving the tactile input device input; and the post-tactile keyboard input is received within the post-tactile input threshold time after receiving the tactile input device input; and the pre-tactile keyboard input is received within the pre-tactile input threshold time before receiving the tactile input device input; and the post-tactile keyboard input is received within the post-tactile input threshold time after receiving the tactile input device input; and recognize the tactile input device input if: the pre-tactile keyboard input is not received within the pre-tactile input threshold time before receiving the tactile input device input; or the post-tactile keyboard input is not received within the post-tactile input threshold time after receiving the tactile input device input. the pre-tactile keyboard input is not received within the pre-tactile input threshold time before receiving the tactile input device input; or the post-tactile keyboard input is not received within the post-tactile input threshold time after receiving the tactile input device input.
A copolycarbonate which contains a unit represented by the following formula and a unit represented by the following formula as main recurring units, the (A/B n=1) molar ratio of the unit and the unit (B n=1) being 40/60 to 99/1, and the unit (B n=1) being a single unit constituting a block. (R 1 is an alkylene group or cycloalkylene group, all of which may be substituted by an aromatic group having 6 to 12 carbon atoms. R 2 is an alkylene group, cycloalkylene group or arylene group, all of which may be substituted by an aromatic group having 6 to 12 carbon atoms. "r" and "s" are each independently an integer of 0 to 4. "1" is 0; "m" is 0; and "n" is an integer of 2 to 100; or "l" is 1; "m" is 1; and "n" is an integer of 1 to 100.)
Holding device for holding a soft-magnetic stacked transformer core comprising layers having an amorphous and/or nanocrystalline structure made of a ferrous alloy, particularly of a FeSiB alloy, wherein the stacked transformer core comprises at least two coil legs running parallel to each other and two yokes connected with opposite ends of the coils legs, comprising - at least two holding units (6, 7) that can be arranged in such a way at one of the yokes that the holding units (6, 7) are arranged at opposite end regions of the stacked transformer core, and - at least one mechanical fixing means acting on both holding units (6, 7), the holding units (6, 7) being nondestructively detachably connected with each other via the fixing means, characterized in that the holding device comprises - at least one spacer (9, 33) clamped between said holding units (6, 7) and - at least one spring element (30, 31) arrangeable between at least one holding unit (6, 7) and the stacked transformer core, - wherein the holding device is constructed in such a way that the spring element (30, 31) is elastically deformed by an at least indirect contact with the stacked transformer core caused when the stacked transformer core is arranged at the holding device. - at least two holding units (6, 7) that can be arranged in such a way at one of the yokes that the holding units (6, 7) are arranged at opposite end regions of the stacked transformer core, and - at least one mechanical fixing means acting on both holding units (6, 7), the holding units (6, 7) being nondestructively detachably connected with each other via the fixing means, characterized in that the holding device comprises - at least one spacer (9, 33) clamped between said holding units (6, 7) and - at least one spring element (30, 31) arrangeable between at least one holding unit (6, 7) and the stacked transformer core, - wherein the holding device is constructed in such a way that the spring element (30, 31) is elastically deformed by an at least indirect contact with the stacked transformer core caused when the stacked transformer core is arranged at the holding device.
A device for measuring the flow rate of steel melt near the surface thereof, comprising a flow rate detecting rod and a deflection means for the flow rate detecting rod, wherein the deflection device for the flow rate detecting rod comprises a flow rate detecting rod counterweight and a deflection bearing, the device being characterised in that it further comprises a deflection bearing sleeve, a deflection angle indicating board, a deflection angle pointer and a fastening bolt for the flow rate detecting rod; both the deflection bearing sleeve and the deflection bearing are circular parts, wherein the deflection bearing is slidably set against the inner wall of the deflection bearing sleeve; the outer surface of the deflection bearing sleeve comprises a counterweight rod extending outward, wherein the counterweight rod and the fastening bolt for the flow rate detecting rod are fixed to the outer surface of the deflection bearing sleeve respectively and spaced by 180 degrees, and the flow rate detecting rod counterweight is fixed to the counterweight rod; the deflection angle indicating board has a shape of sector, wherein the vertex of the sector is fixed to an end face of the deflection bearing, and the surface of the arc of the sector comprises scales; the deflection angle pointer is fixed to the vertex of the sector at one end, and the other end points to the scales on the arc of the sector, wherein the deflection angle pointer is parallel to the flow rate detecting rod, and rotates as the flow rate detecting rod rotates; and the flow rate detecting rod is fixed to the outer surface of the deflection bearing sleeve using the fastening bolt for the flow rate detecting rod.
A washing machine comprising; a stationary drum comprising at least one first opening; an inner drum rotatably arranged around an axis of rotation inside said stationary drum, comprising; a second opening for accessing an interior of said inner drum; a hatch configured to cover said second opening; and a locking mechanism configured to secure said hatch in a closed position; characterized in that the washing machine further comprises at least one first safety element extending across said at least one first opening, and said hatch comprises at least one protruding rib arranged to engage said at least one first safety element, wherein said at least one first safety element is arranged to provide a sliding surface (152a, 152b) for guiding said hatch on a smooth trajectory in case said hatch accidentally opens during use of said washing machine. a stationary drum comprising at least one first opening; an inner drum rotatably arranged around an axis of rotation inside said stationary drum, comprising; a second opening for accessing an interior of said inner drum; a hatch configured to cover said second opening; and a locking mechanism configured to secure said hatch in a closed position; a second opening for accessing an interior of said inner drum; a hatch configured to cover said second opening; and a locking mechanism configured to secure said hatch in a closed position; characterized in that the washing machine further comprises at least one first safety element extending across said at least one first opening, and said hatch comprises at least one protruding rib arranged to engage said at least one first safety element, wherein said at least one first safety element is arranged to provide a sliding surface (152a, 152b) for guiding said hatch on a smooth trajectory in case said hatch accidentally opens during use of said washing machine.
Bumper assembly for motor vehicle, comprising: - a cross member intended to extend along a transverse direction of the motor vehicle, - at least one plate (18, 20) intended to be attached to a side member of the motor vehicle, - at least one shock absorber (14, 16) connecting the cross member to the plate (18, 20), said shock absorber (14,16) comprising a tubular portion of composite material, extending along a longitudinal axis, comprising an upstream end applied against the plate (18, 20) and a downstream end applied against the cross member, the upstream end and/or the downstream end comprising a shoulder extending substantially radially from the tubular portion, - an attachment device attaching the absorber (14, 16) to the cross member or the plate (18, 20) by at least one attachment means (66, 67), characterised in that the attachment device comprises at least one metallic attachment part (58, 59) comprising an attachment portion (62, 63) attached to the plate (18, 20) or to the cross member, and a locking portion (60, 61) extending on the shoulder of the absorber (14, 16) so that the shoulder is arranged between the plate (18, 20) or the cross member and the locking portion (60, 61). - a cross member intended to extend along a transverse direction of the motor vehicle, - at least one plate (18, 20) intended to be attached to a side member of the motor vehicle, - at least one shock absorber (14, 16) connecting the cross member to the plate (18, 20), said shock absorber (14,16) comprising a tubular portion of composite material, extending along a longitudinal axis, comprising an upstream end applied against the plate (18, 20) and a downstream end applied against the cross member, the upstream end and/or the downstream end comprising a shoulder extending substantially radially from the tubular portion, - an attachment device attaching the absorber (14, 16) to the cross member or the plate (18, 20) by at least one attachment means (66, 67),
A method of energy efficient wireless communication among a plurality of communications devices, comprising: obtaining a signal pattern that defines resources for use by each of the plurality of communication devices in transmitting or receiving a first set of reference signals (902, 1002) with a first density and a first periodicity and a second set of reference signals (906,1006) with a second density and a second periodicity, wherein the first density is less than the second density and the first periodicity (908, 1010) provides a shorter maximum duration without signal present than the second periodicity (910, 1012) and wherein the second set of reference signals comprises a signal burst; and transmitting or receiving reference signals among the plurality of communications devices based on the signal pattern.
An ionogel composition comprising: at least one ionic liquid selected from imidazolium ionic liquid, ammonium-based ionic liquids, or mixtures thereof; and at least one unprotected tripeptide as a gelator, wherein the tripeptide is selected from the following list: Lysine-Tyrosine-Phenylalanine, Lysine-Phenylalanine-Phenylalanine, Arginine-Phenylalanine-Phenylalanine, Aspartic acid-Phenylalanine-Tyrosine, and Tyrosine-Phenylalanine-Aspartic acid; or 10-700 mM, preferably 20 - 600 mM, of at least one unprotected tripeptide as a gelator, wherein the unprotected tripeptide comprises at least a phenylalanine. at least one ionic liquid selected from imidazolium ionic liquid, ammonium-based ionic liquids, or mixtures thereof; and at least one unprotected tripeptide as a gelator, wherein the tripeptide is selected from the following list: Lysine-Tyrosine-Phenylalanine, Lysine-Phenylalanine-Phenylalanine, Arginine-Phenylalanine-Phenylalanine, Aspartic acid-Phenylalanine-Tyrosine, and Tyrosine-Phenylalanine-Aspartic acid; or 10-700 mM, preferably 20 - 600 mM, of at least one unprotected tripeptide as a gelator, wherein the unprotected tripeptide comprises at least a phenylalanine.