mhurhangee/patent-ind-claim-en huggingface dataset:
A sun protection installation comprising a protection roof provided with a carrier framework and a plurality of obscuration blades , the protection installation being further provided with a system for displacing the plurality of obscuration blades comprising: - a rail and a guide each extending according to a deployment direction of the plurality of blades and each being attached on the carrier framework , - a plurality of carriages each comprising an element for hooking to the rail arranged to allow the displacement of the carriage along the rail , an element for cooperating with the guide arranged to cooperate in translation with the guide according to two opposite deployment directions and a device for transmitting a rotary movement of the guide to the corresponding blade , the rotary movement of the guide being about the extension direction of the guide and the rotary movement of the blade about the extension axis of the blade , - a system for driving a first carriage of the plurality of carriages , according to the first deployment direction , and a second carriage (23'bis) of the plurality of carriages, according to the second deployment direction opposite to the first, where the drive system comprises a unique drive means and a transmission means , the unique drive means is configured to drive the transmission means , the transmission means comprising a belt , and a pinion , the pinion being arranged to transmit a rotary movement to the belt, the belt extending according to the two deployment directions of the blades, with an upper portion of the belt and a lower portion of the belt, the transmission means being configured to cooperate with the first carriage at a first connection so as to displace the first carriage according to the first direction , and to cooperate with the second carriage (23'bis) at a second connection so as to displace it according to the second direction . - a rail and a guide each extending according to a deployment direction of the plurality of blades and each being attached on the carrier framework , - a plurality of carriages each comprising an element for hooking to the rail arranged to allow the displacement of the carriage along the rail , an element for cooperating with the guide arranged to cooperate in translation with the guide according to two opposite deployment directions and a device for transmitting a rotary movement of the guide to the corresponding blade , the rotary movement of the guide being about the extension direction of the guide and the rotary movement of the blade about the extension axis of the blade , - a system for driving a first carriage of the plurality of carriages , according to the first deployment direction , and a second carriage (23'bis) of the plurality of carriages, according to the second deployment direction opposite to the first,
A method of producing a compound represented by General Formula (III), where R 3 and R 4 are each independently hydrogen, halogen, a C 1 -C 6 -alkyl group, a C 1 -C 6 -alkoxy group, a C 1 -C 6 -haloalkyl group, or a C 1 -C 6 -haloalkoxy group; m is an integer from 0 to 5, and when m is 2 or greater, a plurality of R 4 moieties may be different from each other; and n is an integer from 0 to 4, and when n is 2 or greater, a plurality of R 3 moieties may be different from each other; the method comprising: producing the compound represented by General Formula (III) by allowing a cyanide compound to act on a ketone derivative represented by General Formula (II), and washing the compound represented by General Formula (III) produced in the producing the compound represented by General Formula (III) with an alkaline aqueous solution; where X is a halogen atom, and R 3 , R 4 , m, and n in Formula (II) are respectively identical to R 3 , R 4 , m, and n in Formula (III). where R 3 and R 4 are each independently hydrogen, halogen, a C 1 -C 6 -alkyl group, a C 1 -C 6 -alkoxy group, a C 1 -C 6 -haloalkyl group, or a C 1 -C 6 -haloalkoxy group; m is an integer from 0 to 5, and when m is 2 or greater, a plurality of R 4 moieties may be different from each other; and n is an integer from 0 to 4, and when n is 2 or greater, a plurality of R 3 moieties may be different from each other; the method comprising: producing the compound represented by General Formula (III) by allowing a cyanide compound to act on a ketone derivative represented by General Formula (II), and washing the compound represented by General Formula (III) produced in the producing the compound represented by General Formula (III) with an alkaline aqueous solution; where X is a halogen atom, and R 3 , R 4 , m, and n in Formula (II) are respectively identical to R 3 , R 4 , m, and n in Formula (III). producing the compound represented by General Formula (III) by allowing a cyanide compound to act on a ketone derivative represented by General Formula (II), and washing the compound represented by General Formula (III) produced in the producing the compound represented by General Formula (III) with an alkaline aqueous solution; where X is a halogen atom, and R 3 , R 4 , m, and n in Formula (II) are respectively identical to R 3 , R 4 , m, and n in Formula (III).
Method for operating a dual clutch transmission of a motor vehicle, having first sub-transmission , a second sub-transmission , a first clutch assigned to the first sub-transmission , and a second clutch assigned to the second sub-transmission , wherein the dual clutch transmission is shifted to a parking lock state, characterized in that the dual clutch transmission is shifted to the parking lock state by the following steps: - while a first gear of one of the sub-transmissions is engaged: carrying out an engagement procedure provided for engaging a second gear of the one sub-transmission ; - determining that the engagement of the second gear does not happen, despite carrying out the engagement procedure; - selecting a third gear of the dual clutch transmission , different from the first gear and from the second gear ; and - engaging the selected third gear such that, in the parking lock state, the first gear and the third gear are temporarily engaged simultaneously, wherein: ∘ after the third gear has been engaged, the third gear is disengaged and the second gear is engaged, while the first gear remains engaged, or ∘ after the third gear has been engaged, the first gear is disengaged and a fourth gear (26a-c) of the dual clutch transmission , different from the first gear , the second gear and the third gear , is engaged such that, in the parking lock state, the third gear and the fourth gear (26a-c) are engaged simultaneously. - while a first gear of one of the sub-transmissions is engaged: carrying out an engagement procedure provided for engaging a second gear of the one sub-transmission ; - determining that the engagement of the second gear does not happen, despite carrying out the engagement procedure; - selecting a third gear of the dual clutch transmission , different from the first gear and from the second gear ; and - engaging the selected third gear such that, in the parking lock state, the first gear and the third gear are temporarily engaged simultaneously, wherein: ∘ after the third gear has been engaged, the third gear is disengaged and the second gear is engaged, while the first gear remains engaged, or ∘ after the third gear has been engaged, the first gear is disengaged and a fourth gear (26a-c) of the dual clutch transmission , different from the first gear , the second gear and the third gear , is engaged such that, in the parking lock state, the third gear and the fourth gear (26a-c) are engaged simultaneously. ∘ after the third gear has been engaged, the third gear is disengaged and the second gear is engaged, while the first gear remains engaged, or ∘ after the third gear has been engaged, the first gear is disengaged and a fourth gear (26a-c) of the dual clutch transmission , different from the first gear , the second gear and the third gear , is engaged such that, in the parking lock state, the third gear and the fourth gear (26a-c) are engaged simultaneously.
A capacitance-to-voltage interface circuit comprising: a capacitance-to-voltage converter configured to convert a capacitive signal from a capacitive device that operates at a mechanical frequency into a raw voltage signal; a clock generator configured to electrically couple to the capacitive device and convert the mechanical frequency into one or more clock signals; and a filter component electrically coupled to the capacitance-to-voltage converter and the clock generator and configured to apply a band-pass filter response to the raw voltage signal to convert the raw voltage signal into a band-limited voltage signal, wherein the clock generator is configured to apply the one or more clock signals to the filter component to drive a first pole and a second pole of the band-pass filter response to track the mechanical frequency of the capacitive device such that the geometric mean of the first pole and the second pole is substantially equal to the mechanical frequency, wherein the filter component includes a high-pass filter that operates at a high-pass cut-off frequency to form the first pole of the band-pass filter response and a low-pass filter that operates at a low-pass cut-off frequency to form the second pole of the band-pass filter response, wherein the one or more clock signals includes a high-pass clock signal configured to set a high-pass discrete-time sampling rate for the high-pass filter to be a function of the mechanical frequency, and wherein the one or more clock signals include a low-pass clock signal configured to set a low-pass discrete-time sampling rate for the low-pass filter to be a function of the mechanical frequency. a capacitance-to-voltage converter configured to convert a capacitive signal from a capacitive device that operates at a mechanical frequency into a raw voltage signal; a clock generator configured to electrically couple to the capacitive device and convert the mechanical frequency into one or more clock signals; and a filter component electrically coupled to the capacitance-to-voltage converter and the clock generator and configured to apply a band-pass filter response to the raw voltage signal to convert the raw voltage signal into a band-limited voltage signal, wherein the clock generator is configured to apply the one or more clock signals to the filter component to drive a first pole and a second pole of the band-pass filter response to track the mechanical frequency of the capacitive device such that the geometric mean of the first pole and the second pole is substantially equal to the mechanical frequency, wherein the one or more clock signals includes a high-pass clock signal configured to set a high-pass discrete-time sampling rate for the high-pass filter to be a function of the mechanical frequency, and wherein the one or more clock signals include a low-pass clock signal configured to set a low-pass discrete-time sampling rate for the low-pass filter to be a function of the mechanical frequency.
A composite plasma cutting electrode , comprising: a body portion made from a first material having a wall portion defining a cavity and a distal end having an distal end face and a first shoulder engagement portion which extends upstream from said distal end face, where said shoulder portion comprises first and second surfaces ; and a tip portion made from a second material, said tip portion having a distal end face and a tip cavity in said distal end face with an emissive insert disposed in said tip cavity, an upstream end face, and a second shoulder engagement portion extending downstream from said upstream end face having a first and second surface, and wherein said upstream end face of said tip portion makes physical contact with said first surface of said first shoulder engagement portion ; characterized in that said second surface of said first shoulder engagement portion is adjacent to said second surface of said second shoulder portion such that a first gap (G) exists between said respective second surfaces, said first surface of said second shoulder engagement portion is adjacent to said distal end face of said body portion such that a second gap (G) exists between said first surface of said second shoulder engagement portion and said distal end face of said body portion , and each of said first and second gaps (G) are filled with a brazing material which secures said body portion is joined to said tip portion, and in that said second gap (G) is larger than said first gap. a body portion made from a first material having a wall portion defining a cavity and a distal end having an distal end face and a first shoulder engagement portion which extends upstream from said distal end face, where said shoulder portion comprises first and second surfaces ; and a tip portion made from a second material, said tip portion having a distal end face and a tip cavity in said distal end face with an emissive insert disposed in said tip cavity, an upstream end face, and a second shoulder engagement portion extending downstream from said upstream end face having a first and second surface, and wherein said upstream end face of said tip portion makes physical contact with said first surface of said first shoulder engagement portion ; characterized in that said second surface of said first shoulder engagement portion is adjacent to said second surface of said second shoulder portion such that a first gap (G) exists between said respective second surfaces, said first surface of said second shoulder engagement portion is adjacent to said distal end face of said body portion such that a second gap (G) exists between said first surface of said second shoulder engagement portion and said distal end face of said body portion , and each of said first and second gaps (G) are filled with a brazing material which secures said body portion is joined to said tip portion, and in that said second gap (G) is larger than said first gap.
A method of generating bubbles of a first fluid in a second fluid , the method comprising: flowing a stream of the second fluid through a microfluidic channel ; injecting a stream of the first fluid into the microfluidic channel through an aperture such that bubbles of the first fluid form in the second fluid ; wherein: sonicating the microfluidic channel with ultrasound so as to cause the bubbles formed at the aperture to divide; characterized in that the ultrasound has a frequency corresponding to a resonance of the microfluidic channel . flowing a stream of the second fluid through a microfluidic channel ; injecting a stream of the first fluid into the microfluidic channel through an aperture such that bubbles of the first fluid form in the second fluid ; wherein: sonicating the microfluidic channel with ultrasound so as to cause the bubbles formed at the aperture to divide; characterized in that the ultrasound has a frequency corresponding to a resonance of the microfluidic channel . sonicating the microfluidic channel with ultrasound so as to cause the bubbles formed at the aperture to divide; characterized in that the ultrasound has a frequency corresponding to a resonance of the microfluidic channel .
A proactive method for preventing vibrations in one or more rotor blades of a wind turbine when the wind turbine is in a standstill idling state with a rotor hub free to rotate, the method comprising: determining a minimum revolution rate of the rotor blades that prevents vibrations of the rotor blades; determining that the revolution rate of the rotor blades is below the minimum revolution rate ; detecting one or more wind parameters for wind impacting the rotor blades and determining if the wind parameters are above a threshold limit ; determining that grid power is available to the wind turbine ; based on the wind parameters, with a controller, determining a pitch angle for one or more of the rotor blades to increase rotation of the blades to at least the minimum revolution rate; with the controller, pitching the rotor blades to the pitch angle ; and characterized in that the rotor blades are pitched to increase the revolution rate of the rotor blades prior to vibrations being induced in the rotor blades. determining a minimum revolution rate of the rotor blades that prevents vibrations of the rotor blades; determining that the revolution rate of the rotor blades is below the minimum revolution rate ; detecting one or more wind parameters for wind impacting the rotor blades and determining if the wind parameters are above a threshold limit ; determining that grid power is available to the wind turbine ; based on the wind parameters, with a controller, determining a pitch angle for one or more of the rotor blades to increase rotation of the blades to at least the minimum revolution rate; with the controller, pitching the rotor blades to the pitch angle ; and characterized in that the rotor blades are pitched to increase the revolution rate of the rotor blades prior to vibrations being induced in the rotor blades.
Motor vehicle latch, in particular motor vehicle door latch, comprising a locking mechanism arranged in a latch housing and consisting substantially of a catch and a pawl , furthermore comprising an electric motor drive in particular for the locking mechanism , and comprising an emergency power source for the emergency electrical supply of the drive , the emergency power source being arranged in a replaceable manner in the latch housing , characterized in that the emergency power source is accessible via a latch mouth in the latch housing .
A method for network resource optimization in a service area of a communication network, the method comprising: dividing the service area into a plurality of sub-areas, wherein each of the plurality of sub-areas is serviced by at least one network resource from a pre-determined number of network resources wherein the division of the service area into the plurality of sub-areas is based on distribution of demand nodes within the service area, wherein each demand node corresponds to a pre-determined number of users on the communication network; determining a locally optimal deployment solution, comprising at least one local allocation attribute for the at least one network resource in each of the plurality of sub-areas, by utilizing local threshold values corresponding to one or more of a plurality of objectives to meet the plurality of objectives for network resource optimization; and obtaining a globally optimal deployment solution, comprising at least one global allocation attribute for allocation of the pre-determined number of network resources in the service area, based on iterative processing of the locally optimal deployment solution to meet the plurality of objectives. dividing the service area into a plurality of sub-areas, wherein each of the plurality of sub-areas is serviced by at least one network resource from a pre-determined number of network resources wherein the division of the service area into the plurality of sub-areas is based on distribution of demand nodes within the service area, wherein each demand node corresponds to a pre-determined number of users on the communication network; determining a locally optimal deployment solution, comprising at least one local allocation attribute for the at least one network resource in each of the plurality of sub-areas, by utilizing local threshold values corresponding to one or more of a plurality of objectives to meet the plurality of objectives for network resource optimization; and obtaining a globally optimal deployment solution, comprising at least one global allocation attribute for allocation of the pre-determined number of network resources in the service area, based on iterative processing of the locally optimal deployment solution to meet the plurality of objectives.
An electronic device comprising: a first housing ; a second housing for rotatably combining with the first housing; at least one hinge assembly configured to at least partially include an electric conductor portion, the at least one hinge assembly for rotatably coupling the second housing to the first housing, wherein the at least one hinge assembly is configured to provide a first hinge axis (H1) and a second hinge axis (H2) in parallel with the first hinge axis; and at least one antenna device coupled to the at least one hinge assembly, wherein the at least one antenna device includes a radiating conductor pattern and a ground patch , and wherein the ground patch is electrically connected to the electric conductor portion of the at least one hinge assembly, and wherein the at least one hinge assembly includes a connecting member disposed between the first hinge axis and the second hinge axis, wherein the connecting member connects the ground patch to the electric conductor portion of the hinge assembly. a first housing ; a second housing for rotatably combining with the first housing; at least one hinge assembly configured to at least partially include an electric conductor portion, the at least one hinge assembly for rotatably coupling the second housing to the first housing, wherein the at least one hinge assembly is configured to provide a first hinge axis (H1) and a second hinge axis (H2) in parallel with the first hinge axis; and at least one antenna device coupled to the at least one hinge assembly, wherein the at least one antenna device includes a radiating conductor pattern and a ground patch , and wherein the ground patch is electrically connected to the electric conductor portion of the at least one hinge assembly, and wherein the at least one hinge assembly includes a connecting member disposed between the first hinge axis and the second hinge axis, wherein the connecting member connects the ground patch to the electric conductor portion of the hinge assembly.
An electrostatic chuck comprising: a surface layer activated by a voltage in an electrode to form an electric charge to electrostatically clamp a substrate to the electrostatic chuck, the surface layer including a plurality of protrusions comprising a hard-baked photo-patterned polymer and a charge control layer to which the plurality of polymer protrusions adhere, the plurality of polymer protrusions extending to a height above portions of the charge control layer surrounding the plurality of polymer protrusions to support the substrate upon the plurality of polymer protrusions during electrostatic clamping of the substrate.