mhurhangee/ep-ind-claims huggingface dataset:
Bicycle pedal with automatic engagement and disengagement, comprising a body (2, 2') with a sleeve (2a, 2a') mounted with the ability to rotate on a pedal spindle with: - a front stop means able to collaborate with a mating stop surface provided on a cleat fixed underneath the sole of the shoe of the user; - a retaining member mounted with the ability to rotate about a geometric axis parallel to and to the rear of the pedal spindle, this retaining member being able to be pressed against the cleat by an elastic return means so as to fasten the cleat to the pedal, - a pawl, situated to the rear of the pedal spindle, capable of holding the retaining member in an open position as the cleat is disengaged against the action of the elastic return, and of releasing this retaining member as the cleat engages, characterized in that the pawl comprises an extension towards the front of the pedal, which is curved so as to pass under the sleeve (2a, 2a') of the pedal spindle and curl up in front of the sleeve to constitute a stop that opposes rearward movement of the cleat and of the shoe, the cleat comprising a downwardly projecting part able to collaborate with the said extension. - a front stop means able to collaborate with a mating stop surface provided on a cleat fixed underneath the sole of the shoe of the user; - a retaining member mounted with the ability to rotate about a geometric axis parallel to and to the rear of the pedal spindle, this retaining member being able to be pressed against the cleat by an elastic return means so as to fasten the cleat to the pedal, - a pawl, situated to the rear of the pedal spindle, capable of holding the retaining member in an open position as the cleat is disengaged against the action of the elastic return, and of releasing this retaining member as the cleat engages, characterized in that the pawl comprises an extension towards the front of the pedal, which is curved so as to pass under the sleeve (2a, 2a') of the pedal spindle and curl up in front of the sleeve to constitute a stop that opposes rearward movement of the cleat and of the shoe, the cleat comprising a downwardly projecting part able to collaborate with the said extension.
A temperature-dependent switch comprising a housing, which housing has a cover part (12; 115) and a lower part (11; 114), said lower part comprising a peripheral wall (10; 113) and a bottom side, a temperature-dependent switching mechanism (15; 111), which switching mechanism is arranged in the housing and which, depending on its temperature, produces or opens an electrically conductive connection between two external connection terminals (22, 23) provided on an upper surface of the housing, and a shielding cup made of an electrically conductive, metal material, into which the housing is inserted with its bottom side first, and which shielding cup comprises a peripheral wall, which peripheral wall at the top delimits an insertion opening and at the bottom is terminated by a base, both external connection terminals (22, 23) being provided with connection lines (27, 28) which lead out from the shielding cup at the top, characterized in that the peripheral wall is bent over at its upper rim toward the upper surface of the housing, contact angles (137, 138) are fastened via their short branches (139, 140) to the external connection terminals (22, 23), the connection lines (27, 28) being fastened to the long branches (141, 142) of said contact angles, and the long branches (141, 142) are bent over toward the short branches (139, 140).
A compound of formula I wherein R 5 is methyl and X 1, X 2, X 3, X 4 and R 2 have the meaning as indicated in the following table: X1 X2 X3 X4 R2 C-F C-F C-F CF3 thietan-3-yl- C-Cl C-Cl C-Cl CF3 3-Methyl-thietan-3-yl- C-Cl C-I C-Cl CF3 1,1-Dioxo-thietan-3-yl- C-Cl C-I C-Cl CF3 3-Methyl-thietan-3-yl- C-Cl C-I C-Cl CF3 thietan-3-yl- C-Cl C-F C-Cl CF3 1,1-Dioxo-thietan-3-yl- C-Cl C-F C-Cl CF3 3-Methyl-thietan-3-yl- C-Cl C-I C-Cl CF3 1-oxo-thietan-3-yl-(cis) C-Cl C-Cl C-CF3 CF3 3-Methyl-thietan-3-yl- C-CF3 C-Cl C-CF3 CF3 3-Methyl-thietan-3-yl-
A process for producing magnesium metal from dihydrate magnesium chloride comprising the steps of: dehydrating MgCl 2 •2H 2 O with anhydrous hydrochloric acid (HCl) to obtain anhydrous magnesium chloride, releasing hydrous HCI gas; and electrolyzing the anhydrous magnesium chloride in an electrolytic cell feed using an inert gas under an inert atmosphere, wherein magnesium metal and hot anhydrous hydrogen chloride are produced, wherein a first fraction of the hydrous HCI gas is dehydrated by contact with a desiccant agent in a drying unit to produce anhydrous HCI and water, wherein said hot anhydrous HCI produced by the electrolytic cell and optionally the drying unit is reused to dehydrate the MgCl 2 •2H 2 O, and wherein the process further comprises the step of feeding the first fraction of the hydrous HCl gas into a condenser for desiccation to produce hydrogen chloride gas and a hydrochloric acid solution of 22-28% before being dehydrated in the drying unit. dehydrating MgCl 2 •2H 2 O with anhydrous hydrochloric acid (HCl) to obtain anhydrous magnesium chloride, releasing hydrous HCI gas; and electrolyzing the anhydrous magnesium chloride in an electrolytic cell feed using an inert gas under an inert atmosphere, wherein magnesium metal and hot anhydrous hydrogen chloride are produced,
A method of fabricating a sound attenuation panel of curved shape, the method comprises the following steps: • impregnating a fiber structure defining a cellular structure with a ceramic precursor resin; • polymerizing the ceramic precursor resin while holding the fiber structure on tooling presenting a curved shape corresponding to the final shape of the cellular structure; • docking the cellular structure with first and second skins so as to close the cells of said cellular structure, each skin being formed by a fiber structure (200; 300) impregnated with a ceramic precursor resin, each skin being docked to said cellular structure before or after polymerizing the resin of said skins, and before transformation of the resin of the cellular structure into ceramic by pyrolysis; • pyrolyzing the assembly constituted by the cellular structure and the first and second skins; and • densifying said assembly by chemical vapor infiltration. • impregnating a fiber structure defining a cellular structure with a ceramic precursor resin; • polymerizing the ceramic precursor resin while holding the fiber structure on tooling presenting a curved shape corresponding to the final shape of the cellular structure; • docking the cellular structure with first and second skins so as to close the cells of said cellular structure, each skin being formed by a fiber structure (200; 300) impregnated with a ceramic precursor resin, each skin being docked to said cellular structure before or after polymerizing the resin of said skins, and before transformation of the resin of the cellular structure into ceramic by pyrolysis; • pyrolyzing the assembly constituted by the cellular structure and the first and second skins; and • densifying said assembly by chemical vapor infiltration.
A device in combination with a first optical fiber cable (200A, 200, 270), the device comprising a power sourcing equipment semiconductor laser configured to output a first light, configured to be used for power feeding, and including a semiconductor region exhibiting a light-electricity conversion effect, and a first transmitter configured to output a second light for communication, wherein the first optical fiber cable (200A, 200, 200B) has a first path configured for the first light to pass through, wherein a semiconductor material of the semiconductor region is a laser medium having a laser wavelength of 500 nm or less, and wherein the first optical fiber cable (200A, 200, 270) has a second path configured for the second light to pass through, or wherein the device is further in combination with a second optical fiber cable having a second path configured for the second light to pass through. a power sourcing equipment semiconductor laser configured to output a first light, configured to be used for power feeding, and including a semiconductor region exhibiting a light-electricity conversion effect, and a first transmitter configured to output a second light for communication, wherein the first optical fiber cable (200A, 200, 200B) has a first path configured for the first light to pass through, wherein a semiconductor material of the semiconductor region is a laser medium having a laser wavelength of 500 nm or less, and wherein the first optical fiber cable (200A, 200, 270) has a second path configured for the second light to pass through, or wherein the device is further in combination with a second optical fiber cable having a second path configured for the second light to pass through.
Operating device for a motor vehicle, with at least one operating control which can be actuated by an operator, and with a symbol bearer, separate from the operating control, for the graphic identification of the at least one operating control, characterized in that the symbol bearer for the operating control has a first and at least one further graphical symbol different therefrom and can be moved relative to the at least one operating control between a first position in which the operating control is identified with the first symbol and at least one further position in which the operating control is identified with the further symbol, wherein the at least one operating control is formed by a touch-sensitive switching area of a touchpad, and wherein the at least one operating control is arranged at a front side of a steering wheel, particularly a steering wheel spoke, and the operating device has an actuating element which can be actuated by the operator, by means of which the symbol bearer can be moved between the first position and the at least one further position and which is arranged on the front side or at a rear side, opposite the front side, of the steering wheel.
A process of streaming digital data, adapted to being used by a flexible platform for discovering, selecting, executing and evaluating the most appropriate connectivity strategy, comprising: a) sending streaming digital data from a sender to a receiver via plural interfaces, storing such digital data in a sender buffer so it can be retransmitted if needed and dropping buffered data whose play-out deadline has expired; b) receiving said streaming digital data from said sender, c) storing received streaming data in a receiver buffer, d) selectively re-transmitting missing data from the sender to the receiver; e) dynamic load balancing of transmissions of streaming digital data across said plural interfaces, and f) releasing packets from the receiver to an application; g) identifying, by the receiver, missing data and sending retransmission requests to the sender, wherein said digital data is in packets, characterized in that the step of selectively re-transmitting missing data includes re-transmitting a certain packet from said sender to said receiver in accordance with an algorithm considering: d1) whether the certain packet is still sorted in a packet buffer at the sender; d2) whether the receiver requests the sender to retransmit the certain packet; d3) an urgency level of the certain packet; and d4) network conditions of the plural interfaces; and the step of releasing packets from the receiver to an application is executed in accordance with a receiver buffer management algorithm considering: f1) whether a play-out deadline of the packet preceding the certain packet is about to expire; f2) whether the number of packets of packet buffer exceeds a threshold; and f3) whether time since last packet delivery exceeds a threshold. a) sending streaming digital data from a sender to a receiver via plural interfaces, storing such digital data in a sender buffer so it can be retransmitted if needed and dropping buffered data whose play-out deadline has expired; b) receiving said streaming digital data from said sender, c) storing received streaming data in a receiver buffer, d) selectively re-transmitting missing data from the sender to the receiver; e) dynamic load balancing of transmissions of streaming digital data across said plural interfaces, and f) releasing packets from the receiver to an application; g) identifying, by the receiver, missing data and sending retransmission requests to the sender, wherein said digital data is in packets, d1) whether the certain packet is still sorted in a packet buffer at the sender; d2) whether the receiver requests the sender to retransmit the certain packet; d3) an urgency level of the certain packet; and d4) network conditions of the plural interfaces; f1) whether a play-out deadline of the packet preceding the certain packet is about to expire; f2) whether the number of packets of packet buffer exceeds a threshold; and f3) whether time since last packet delivery exceeds a threshold.
A device comprising: a light detection and ranging, LIDAR, transmitter that emits light pulses toward a scene according to a pointing direction of the device; a LIDAR receiver that detects reflections of the emitted light pulses from the scene; an image sensor that captures a plurality of images of the scene according to the pointing direction of the device and based on at least external light originating from one or more external light sources, wherein the image sensor comprises an array of sensing elements, and wherein the plurality of images comprises a first image of the scene based on image sensor data obtained at a first time, and a second image of the scene based on image sensor data obtained at a second time after the first time; a platform that supports the LIDAR transmitter, the LIDAR receiver, and the image sensor in a particular relative arrangement; and an actuator that rotates the platform about an axis to adjust the pointing direction of the device, wherein the device is configured to generate a composite image by combining data from a first pixel in the first image obtained at the first time by a first of the sensing elements and data from a second pixel in the second image obtained at the second time by a second of the sensing elements, and wherein the first and second pixels are selected based on a rate of rotation of the platform. a light detection and ranging, LIDAR, transmitter that emits light pulses toward a scene according to a pointing direction of the device; a LIDAR receiver that detects reflections of the emitted light pulses from the scene; an image sensor that captures a plurality of images of the scene according to the pointing direction of the device and based on at least external light originating from one or more external light sources, wherein the image sensor comprises an array of sensing elements, and wherein the plurality of images comprises a first image of the scene based on image sensor data obtained at a first time, and a second image of the scene based on image sensor data obtained at a second time after the first time; a platform that supports the LIDAR transmitter, the LIDAR receiver, and the image sensor in a particular relative arrangement; and an actuator that rotates the platform about an axis to adjust the pointing direction of the device, wherein the device is configured to generate a composite image by combining data from a first pixel in the first image obtained at the first time by a first of the sensing elements and data from a second pixel in the second image obtained at the second time by a second of the sensing elements, and wherein the first and second pixels are selected based on a rate of rotation of the platform.
A method for wireless communication, comprising: transmitting, by a terminal to a network node, a first message comprising a first preamble sequence associated with a first index; and transmitting, to the network node a second message comprising a second preamble sequence associated with a second index, wherein the first index is from a first half of a set of indexes, wherein the second index is from a second half of the set of indexes, and wherein the first index and the second index are determined to have a constraint relationship, wherein the constraint relationship comprises a difference between the first index and the second index being equal to a fixed value, wherein the first half of the set of indexes comprises { 0, 1,..., 2 N-1 - 1}, wherein the second half of the set of indexes comprises { 2 N-1, 2 N-1 + 1,..., 2 N - 1}, and the fixed value is 2 N-1, N being a positive integer, wherein the terminal conveys a first value of an information bit by transmitting the first and second messages over a first resource and a second resource, respectively, and conveys a second value of the information bit by transmitting the first and second messages over the second resource and the first resource, respectively. transmitting, by a terminal to a network node, a first message comprising a first preamble sequence associated with a first index; and transmitting, to the network node a second message comprising a second preamble sequence associated with a second index, wherein the first index is from a first half of a set of indexes, wherein the second index is from a second half of the set of indexes, and wherein the first index and the second index are determined to have a constraint relationship, wherein the constraint relationship comprises a difference between the first index and the second index being equal to a fixed value, wherein the first half of the set of indexes comprises { 0, 1,..., 2 N-1 - 1}, wherein the second half of the set of indexes comprises { 2 N-1, 2 N-1 + 1,..., 2 N - 1}, and the fixed value is 2 N-1, N being a positive integer, wherein the terminal conveys a first value of an information bit by transmitting the first and second messages over a first resource and a second resource, respectively, and conveys a second value of the information bit by transmitting the first and second messages over the second resource and the first resource, respectively.
A method for bidirectional communication between a command unit and a serially and electrically connected plurality of LED control units (SE1, SE2, SE3), the method comprising the following steps: - transmitting a control command directed to all LED control units (SE1, SE2, SE3) as instruction from the command unit to the first in series connected LED control unit; - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) that received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives and executes the same control command and directly after receiving and before executing or during executing passes it on, wherein the control command is deleted immediately after executing and passing on without intermediate storing; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit receives the execution results of each LED control unit (SE1, SE2, SE3). - transmitting a control command directed to all LED control units (SE1, SE2, SE3) as instruction from the command unit to the first in series connected LED control unit; - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) that received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives and executes the same control command and directly after receiving and before executing or during executing passes it on, wherein the control command is deleted immediately after executing and passing on without intermediate storing; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit receives the execution results of each LED control unit (SE1, SE2, SE3).
A hybrid currency banknote, comprising: a banknote comprising visible markings on a flexible substrate; one or more inorganic light-emitting diodes embedded in or on the flexible substrate; a controller embedded in or on the flexible substrate electrically connected to the one or more light-emitting diodes for controlling the one or more light-emitting diodes to emit viewable light; a power input connection electrically connected to the controller, or one or more light-emitting diodes, or both; and a power source embedded in or on the flexible substrate and connected to the power input connection, characterised in that (i) the one or more light-emitting diodes are very small, so as to be effectively invisible to the unaided human eye and (ii) the one or more light-emitting diodes and the controller each comprise at least a portion of a tether. a banknote comprising visible markings on a flexible substrate; one or more inorganic light-emitting diodes embedded in or on the flexible substrate; a controller embedded in or on the flexible substrate electrically connected to the one or more light-emitting diodes for controlling the one or more light-emitting diodes to emit viewable light; a power input connection electrically connected to the controller, or one or more light-emitting diodes, or both; and a power source embedded in or on the flexible substrate and connected to the power input connection, characterised in that (i) the one or more light-emitting diodes are very small, so as to be effectively invisible to the unaided human eye and (ii) the one or more light-emitting diodes and the controller each comprise at least a portion of a tether.
A reversible thermosensitive recording medium comprising: a support a reversible thermosensitive recording layer provided on the support and an antistatic layer, wherein the antistatic layer is provided on at least one of the reversible thermosensitive recording layer and a surface of the support opposite to the surface thereof on which the reversible thermosensitive recording layer is provided, wherein the antistatic layer contains spherical fillers and a curable conductive polymer, and wherein the spherical fillers satisfy the following Expression: 4 ≤ average particle diameter of the spherical fillers / thickness of the antistatic layer ≤ 6 a support a reversible thermosensitive recording layer provided on the support and an antistatic layer, wherein the antistatic layer is provided on at least one of the reversible thermosensitive recording layer and a surface of the support opposite to the surface thereof on which the reversible thermosensitive recording layer is provided, wherein the antistatic layer contains spherical fillers and a curable conductive polymer, and wherein the spherical fillers satisfy the following Expression: 4 ≤ average particle diameter of the spherical fillers / thickness of the antistatic layer ≤ 6