mhurhangee/ep-ind-claims huggingface dataset:
Catalytic system based at least: • on a preformation monomer selected from the group consisting of 1,3-dienes, ethylene, α-monoolefins and their mixtures, • on a metallocene of formula, • on an organometallic compound as cocatalyst, {P(Cp)(Flu)LnG} - Ln denoting a metal atom which is a rare earth metal, - G denoting a group comprising the borohydride BH 4 unit or denoting a halogen atom X selected from the group consisting of chlorine, fluorine, bromine and iodine, - Cp denoting a cyclopentadienyl group of formula C 5 H 4, - Flu denoting a fluorenyl group of formula C 13 H 8, - P being a group bridging the two Cp and Flu groups and comprising a silicon or carbon atom the catalytic system being prepared by a process comprising the following stages a) and b): a) reacting, in a hydrocarbon solvent, the cocatalyst and the metallocene, b) reacting the preformation monomer with the reaction product from stage a). • on a preformation monomer selected from the group consisting of 1,3-dienes, ethylene, α-monoolefins and their mixtures, • on a metallocene of formula, • on an organometallic compound as cocatalyst, {P(Cp)(Flu)LnG} - Ln denoting a metal atom which is a rare earth metal, - G denoting a group comprising the borohydride BH 4 unit or denoting a halogen atom X selected from the group consisting of chlorine, fluorine, bromine and iodine, - Cp denoting a cyclopentadienyl group of formula C 5 H 4, - Flu denoting a fluorenyl group of formula C 13 H 8, - P being a group bridging the two Cp and Flu groups and comprising a silicon or carbon atom a) reacting, in a hydrocarbon solvent, the cocatalyst and the metallocene, b) reacting the preformation monomer with the reaction product from stage a).
A method of managing a system information block, SIB, in a wireless communication network, the method comprising: obtaining, by a device, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, from a base station; obtaining, by the device, information including a cell identity, ID, of the base station and a duplex mode, from the PSS and the SSS; obtaining, by the device, a time resource and a frequency resource for a SIB transmitted by the base station, based on the cell ID and the duplex mode; and reading, by the device, the SIB based on the time resource and the frequency resource independently of a master information block, MIB, of the base station. obtaining, by a device, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, from a base station; obtaining, by the device, information including a cell identity, ID, of the base station and a duplex mode, from the PSS and the SSS; obtaining, by the device, a time resource and a frequency resource for a SIB transmitted by the base station, based on the cell ID and the duplex mode; and reading, by the device, the SIB based on the time resource and the frequency resource independently of a master information block, MIB, of the base station.
Machine (1, 40) for stamping and/or welding onto a plastic skin of a motor vehicle bodywork part, comprising moving tools (35, 52) for stamping and/or welding, each being adjusted to perform a stamping and/or welding operation, this stamping and/or welding operation being carried out in three stages: a) moving from a retracted position, away from the skin, to come into a working position, in contact with or in close proximity to the skin, b) performing the stamping and/or welding, then c) returning to the retracted position, the machine further comprising a support (9, 58) for receiving the skin in a predetermined position, and wherein the support (9, 58) and the moving tools (35, 50) are arranged so that the skin, once positioned on the support (9, 58), defines, possibly being completed by a protective screen (19, 20, 21, 22, 23, 24, 25, 26, 58), a safety volume inside which the moving tools (35, 50) move to perform the stamping and/or welding operations on the skin, the machine being characterised in that it further comprises at least one retractable structure (15, 17, 46) carrying the moving tools (35, 52), this retractable structure (15, 17, 46) being able to take up a retracted position in which it releases a space opposite the support (9, 58) to facilitate the positioning of a skin on the support and an operational position in which it holds the moving tools (35, 52) in a working position relative to a skin positioned on the support (9, 58). a) moving from a retracted position, away from the skin, to come into a working position, in contact with or in close proximity to the skin, b) performing the stamping and/or welding, then c) returning to the retracted position,
Method for performing biometric authentication with a mobile station that is provided with a camera and a display on its front side and that is provided with an integrated authentication server or is connectable to an authentication server via a network such as mobile communications network, comprising the steps of a) enrolling the user in the biometric system by capturing and storing biometric data relating to a plurality of characteristics that belong to the user's head and that are normally exposed to the mobile station during the process of accepting a call; b) initiating or accepting a call on the mobile station; c) activating the camera when initiating, receiving, or accepting the call and capturing optical information from the face or from the ear of the user between the setup or acceptance of the call and the start of the conversation and transferring the captured optical information to the authentication server; d) authenticating the user by comparing the optical information captured after the activation of the camera with the biometric data previously captured during the enrolment process; and e) performing defined actions depending on the result of the authentication characterised by the steps of capturing optical information after the activation of the camera during the movement of the mobile station towards the ear of the user from the front profile of the user's face, the side profile of the user's face and the ear of the user in one or a plurality of sequences and authenticating the user by comparing the optical information with the biometric data previously captured during the enrolment process, by identifying and matching characteristics that had been captured from different angles. a) enrolling the user in the biometric system by capturing and storing biometric data relating to a plurality of characteristics that belong to the user's head and that are normally exposed to the mobile station during the process of accepting a call; b) initiating or accepting a call on the mobile station; c) activating the camera when initiating, receiving, or accepting the call and capturing optical information from the face or from the ear of the user between the setup or acceptance of the call and the start of the conversation and transferring the captured optical information to the authentication server; d) authenticating the user by comparing the optical information captured after the activation of the camera with the biometric data previously captured during the enrolment process; and e) performing defined actions depending on the result of the authentication
A power supply system (P, P2, P3), the power supply system (P, P2, P3) being a power supply system of a vehicle, the power supply system (P, P2, P3) comprising: a fuel cell; and a battery unit connected to the fuel cell, wherein the battery unit is provided with a first battery connected to the fuel cell so as to supply power to an auxiliary machine of the fuel cell and to be able to be charged with generated power of the fuel cell, and a second battery, the fuel cell, the first battery, and a traveling motor of the vehicle are connected to one another in series and the first battery forms a system output of the power supply system (P, P2, P3) and drives the traveling motor by the system output, and the power supply system (P, P2, P3) further comprises a controller characterized in that the second battery is connected to the auxiliary machine of the fuel cell through a path different from a path of the first battery so as to be able to supply power, the battery unit is further provided with a switcher (R1, R2) configured to switch a power supply source to the auxiliary machine of the fuel cell between the first battery and the second battery, and the controller is configured to control an operation of the switcher (R1, R2), wherein the controller switches the power supply source to the second battery during charge of the first battery or at occurrence of a failure in the first battery. a fuel cell; and a battery unit connected to the fuel cell, wherein the battery unit is provided with a first battery connected to the fuel cell so as to supply power to an auxiliary machine of the fuel cell and to be able to be charged with generated power of the fuel cell, and a second battery, a first battery connected to the fuel cell so as to supply power to an auxiliary machine of the fuel cell and to be able to be charged with generated power of the fuel cell, and a second battery, the fuel cell, the first battery, and a traveling motor of the vehicle are connected to one another in series and the first battery forms a system output of the power supply system (P, P2, P3) and drives the traveling motor by the system output, and the power supply system (P, P2, P3) further comprises a controller characterized in that the second battery is connected to the auxiliary machine of the fuel cell through a path different from a path of the first battery so as to be able to supply power, the battery unit is further provided with a switcher (R1, R2) configured to switch a power supply source to the auxiliary machine of the fuel cell between the first battery and the second battery, and the controller is configured to control an operation of the switcher (R1, R2), wherein the controller switches the power supply source to the second battery during charge of the first battery or at occurrence of a failure in the first battery.
An electrical stimulation controlling device, comprising: a receiving circuit, configured to receive an ictal neural signal from a detector, which is a signal obtained by the detector when a seizure onset has been occurring; and a controller, coupled to the receiving circuit and a stimulator, and configured to: determine a time point to start an electrical stimulation according to the ictal neural signal after the seizure onset has been determined; and generate and transmit a control signal to the stimulator for providing the electrical stimulation according to the determined time point. a receiving circuit, configured to receive an ictal neural signal from a detector, which is a signal obtained by the detector when a seizure onset has been occurring; and a controller, coupled to the receiving circuit and a stimulator, and configured to: determine a time point to start an electrical stimulation according to the ictal neural signal after the seizure onset has been determined; and generate and transmit a control signal to the stimulator for providing the electrical stimulation according to the determined time point. determine a time point to start an electrical stimulation according to the ictal neural signal after the seizure onset has been determined; and generate and transmit a control signal to the stimulator for providing the electrical stimulation according to the determined time point.
A noise attenuation panel for a gas turbine engine comprising: a plurality of flow passages, wherein: each flow passage comprises an inlet and an outlet; and the flow area through the passage increases downstream of the inlet and decreases into the outlet, wherein the flow area of the outlet is bigger than the flow area of the inlet; and the noise attenuation panel is generally perpendicular to a longitudinal axis (Z-Z); and the flow inlets form a first planar surface and the flow outlets form a second planar surface offset from the first planar surface; whereby each flow outlet is offset from the flow inlet in a direction perpendicular to the longitudinal axis; and characterised in that: the noise attenuation panel comprises a stiffening rib that extends perpendicularly to the longitudinal axis and along a centreline of the noise attenuation panel, the noise attenuation panel being symmetrical about a plane passing through the centre of the stiffening rib and containing the longitudinal axis. each flow passage comprises an inlet and an outlet; and the flow area through the passage increases downstream of the inlet and decreases into the outlet, wherein the flow area of the outlet is bigger than the flow area of the inlet; and the noise attenuation panel is generally perpendicular to a longitudinal axis (Z-Z); and the flow inlets form a first planar surface and the flow outlets form a second planar surface offset from the first planar surface; whereby each flow outlet is offset from the flow inlet in a direction perpendicular to the longitudinal axis; and characterised in that: the noise attenuation panel comprises a stiffening rib that extends perpendicularly to the longitudinal axis and along a centreline of the noise attenuation panel, the noise attenuation panel being symmetrical about a plane passing through the centre of the stiffening rib and containing the longitudinal axis.
A method of operating a user equipment, UE, device, comprising: processing an output of a photodiode to detect receipt of an information signal transmitted via a light signal from a light transmitter; and in response to detecting receipt of the information signal from the light transmitter, changing from a first mode of device operation to a second mode of device operation, said second mode of device operation being a traffic data mode of operation which is a higher power consumption mode of operation than said first mode of device operation, said changing from said first mode of device operation to said second mode of device operation including configuring a receiver feature used during said traffic data mode of operation based on configuration information communicated by light signals received during said first mode of device operation, said configuration information including information indicating at least one of WDM bands, bandwidth, or modulation used to communicate data using light signals during said traffic data mode of operation. processing an output of a photodiode to detect receipt of an information signal transmitted via a light signal from a light transmitter; and in response to detecting receipt of the information signal from the light transmitter, changing from a first mode of device operation to a second mode of device operation, said second mode of device operation being a traffic data mode of operation which is a higher power consumption mode of operation than said first mode of device operation, said changing from said first mode of device operation to said second mode of device operation including configuring a receiver feature used during said traffic data mode of operation based on configuration information communicated by light signals received during said first mode of device operation, said configuration information including information indicating at least one of WDM bands, bandwidth, or modulation used to communicate data using light signals during said traffic data mode of operation.
Horseshoe comprising a completely closed rigid plate, wherein the rigid plate comprises a lower ground contacting surface and an upper hoof surface for applying to the horse's hoof, and the rigid plate comprises a front part, a left side, a right side, a rear part, with an inclination on the front part, on both left and right sides (2,3) and the rear part, such that the rigid plate has a smaller thickness at each left and right side (2,3) and at each front and rear part, and a greater thickness at a central part of the rigid plate, wherein the lower ground contacting surface comprises an undulating shape for contact with the ground and the upper hoof contacting surface is flat for contacting the horse's hoof. wherein the rigid plate comprises a lower ground contacting surface and an upper hoof surface for applying to the horse's hoof, and the rigid plate comprises a front part, a left side, a right side, a rear part, with an inclination on the front part, on both left and right sides (2,3) and the rear part, such that the rigid plate has a smaller thickness at each left and right side (2,3) and at each front and rear part, and a greater thickness at a central part of the rigid plate, wherein the lower ground contacting surface comprises an undulating shape for contact with the ground and the upper hoof contacting surface is flat for contacting the horse's hoof.
A three-dimensional display formed by arranging first element cells in which personal identification information is recorded, and second element cells carrying an authentication medium from which the personal identification information is visible, wherein the first and second element cells are arranged on a laminate sheet, wherein the display includes a first region and a second region formed by arranging a plurality of the first element cells and a plurality of the second element cells; the first element cells and the second element cells respectively form phase shift structures; in the first region and in the second region, the first element cells and the second element cells are arranged in an interleaved manner at a predetermined ratio to form respective three-dimensional structures; the first region and the second region residing in the three-dimensional structures form coherent and unified three-dimensional images with groups of reconstruction points produced by reflected light from the phase shift structures; a first reconstructed image is produced on a first side of the laminate sheet, at a position apparently separated from the laminate sheet, due to the phase shift structure formed by the first element cells; and a second reconstructed image is produced on a second side of the laminate sheet, at a position apparently separated from the laminate sheet, due to the phase shift structure formed by the second element cells. the display includes a first region and a second region formed by arranging a plurality of the first element cells and a plurality of the second element cells; the first element cells and the second element cells respectively form phase shift structures; in the first region and in the second region, the first element cells and the second element cells are arranged in an interleaved manner at a predetermined ratio to form respective three-dimensional structures; the first region and the second region residing in the three-dimensional structures form coherent and unified three-dimensional images with groups of reconstruction points produced by reflected light from the phase shift structures; a first reconstructed image is produced on a first side of the laminate sheet, at a position apparently separated from the laminate sheet, due to the phase shift structure formed by the first element cells; and a second reconstructed image is produced on a second side of the laminate sheet, at a position apparently separated from the laminate sheet, due to the phase shift structure formed by the second element cells.
An adhesive comprising a propylene-based polymer composition comprising: a propylene-based polymer satisfying the following requirements and, in an amount of 1 to 30 parts by weight, and a propylene/ethylene/a-olefin copolymer satisfying the following requirements to, in an amount of 70 to 99 parts by weight, with the proviso that the total amount of the component and the component is 100 parts by weight, the polymer has a melting point (Tm), as measured by a differential scanning calorimeter, of not lower than 110°C but not higher than 170°C, the polymer has an isotactic pentad fraction (mmmm fraction) of not less than 90%, the copolymer contains constitutional units derived from propylene in amounts of 73.1 to 83.0% by mol, constitutional units derived from ethylene in amounts of 14.0 to 16.9% by mol and constitutional units derived from an α -olefin of 4 to 20 carbon atoms in amounts of 3.0 to 10.0% by mol, the copolymer has an isotactic triad fraction (mm), as calculated by 13 C-NMR, of not less than 85%, and the copolymer has a molecular weight distribution (Mw/Mn, Mw: weight-average molecular weight, Mn: number-average molecular weight, both being in terms of polystyrene), as measured by gel permeation chromatography, of not more than 3.5. a propylene-based polymer satisfying the following requirements and, in an amount of 1 to 30 parts by weight, and a propylene/ethylene/a-olefin copolymer satisfying the following requirements to, in an amount of 70 to 99 parts by weight, the polymer has a melting point (Tm), as measured by a differential scanning calorimeter, of not lower than 110°C but not higher than 170°C, the polymer has an isotactic pentad fraction (mmmm fraction) of not less than 90%, the copolymer contains constitutional units derived from propylene in amounts of 73.1 to 83.0% by mol, constitutional units derived from ethylene in amounts of 14.0 to 16.9% by mol and constitutional units derived from an α -olefin of 4 to 20 carbon atoms in amounts of 3.0 to 10.0% by mol, the copolymer has an isotactic triad fraction (mm), as calculated by 13 C-NMR, of not less than 85%, and the copolymer has a molecular weight distribution (Mw/Mn, Mw: weight-average molecular weight, Mn: number-average molecular weight, both being in terms of polystyrene), as measured by gel permeation chromatography, of not more than 3.5. the copolymer contains constitutional units derived from propylene in amounts of 73.1 to 83.0% by mol, constitutional units derived from ethylene in amounts of 14.0 to 16.9% by mol and constitutional units derived from an α -olefin of 4 to 20 carbon atoms in amounts of 3.0 to 10.0% by mol, the copolymer has an isotactic triad fraction (mm), as calculated by 13 C-NMR, of not less than 85%, and the copolymer has a molecular weight distribution (Mw/Mn, Mw: weight-average molecular weight, Mn: number-average molecular weight, both being in terms of polystyrene), as measured by gel permeation chromatography, of not more than 3.5.
A LED filament including a linear array of LEDs arranged on a carrier substrate, wherein: the linear array is divided into two separate longitudinal sections, a first longitudinal section including only LEDs configured to emit white light with a color temperature, and a second longitudinal section including only color controllable LEDs configured to emit color controllable light, said color controllable LEDs comprise LED groups each including a red LED, a green LED and a blue LED, within each group the LEDs (27a-c) are arranged non-linearly, e.g. in a triangle fashion, and wherein LEDs in each group are separated by a first, intra-group distance, and wherein groups are separated by a second, inter-group distance, wherein said inter-group distance is greater than said intra-group distance. the linear array is divided into two separate longitudinal sections, a first longitudinal section including only LEDs configured to emit white light with a color temperature, and a second longitudinal section including only color controllable LEDs configured to emit color controllable light, said color controllable LEDs comprise LED groups each including a red LED, a green LED and a blue LED, within each group the LEDs (27a-c) are arranged non-linearly, e.g. in a triangle fashion, and wherein LEDs in each group are separated by a first, intra-group distance, and wherein groups are separated by a second, inter-group distance, wherein said inter-group distance is greater than said intra-group distance.