mhurhangee/patent-ind-claim-en huggingface dataset:
A spectrum sharing method, comprising: receiving (S103), by a user equipment from a network device, time slice allocation information of a cycle period of a shared frequency between a first system and a second system, wherein the time slice allocation information comprises time slicing information which slices the cycle period into a first time slice for the first system and a second time slice for the second system; the spectrum sharing method further characterized by performing (S104), by the user equipment, data transmission at the first time slice by using the first system and by using the shared frequency; and performing (S104), by the user equipment, data transmission at the second time slice by using the second system and by using the shared frequency. receiving (S103), by a user equipment from a network device, time slice allocation information of a cycle period of a shared frequency between a first system and a second system, wherein the time slice allocation information comprises time slicing information which slices the cycle period into a first time slice for the first system and a second time slice for the second system; the spectrum sharing method further characterized by performing (S104), by the user equipment, data transmission at the first time slice by using the first system and by using the shared frequency; and performing (S104), by the user equipment, data transmission at the second time slice by using the second system and by using the shared frequency.
A connection ring for being mounted on a gas tap body of ovens and furnaces, the gas tap body comprising a tap shaft and a gas tap channel , wherein the connection ring comprises - a first piece and a second piece to be coupled to each other for forming the connection ring, wherein the first and second pieces comprise locking sets for throttling the tap shaft channel of said gas tap body in an assembled state of the connection ring, - fixing keys formed on said first piece and second piece and comprising locking levels , - male tabs formed on both the first piece and the second piece and comprising fitting surfaces (11.1) attached to said locking levels in an assembled state of the connection ring, and - a fastening space in which said fixing keys are housed in an assembled state of the connection ring, thereby enabling the coupling of the first and second piece to each other, characterized in that the connection ring further comprises a retaining protrusion having a convex shape and which, in an assembled state of the connection ring and due to its flexible structure, applies a force on the fixing keys in the fastening space for pushing the fixing keys towards the male tabs. - a first piece and a second piece to be coupled to each other for forming the connection ring, wherein the first and second pieces comprise locking sets for throttling the tap shaft channel of said gas tap body in an assembled state of the connection ring, - fixing keys formed on said first piece and second piece and comprising locking levels , - male tabs formed on both the first piece and the second piece and comprising fitting surfaces (11.1) attached to said locking levels in an assembled state of the connection ring, and - a fastening space in which said fixing keys are housed in an assembled state of the connection ring, thereby enabling the coupling of the first and second piece to each other,
Fork-lift truck comprising a lift module , wherein said lift module comprises a mast comprising a load carrier , which is operable to lift loads above ground level, said fork-lift truck further comprising an end module , wherein the end module and the lift module are connected by a waist , wherein the waist can articulate at least in a horizontal plane for manoeuvring the fork-lift truck in a turn, the mast comprises at least one stay assembly , characterized in that said stay assembly is attached to the lift module and the end module such that they are connected to each other, wherein the stay assembly is movably connected to the lift module and/or the end module .
A hyperbolic modulation offset reducer circuit for a resonator fiber optic gyro , the hyperbolic modulation offset reducer circuit comprising: an offset input to receive a transmission signal from a resonator; a first demodulation circuit configured to demodulate the received transmission signal using a sideband heterodyne detection modulation frequency to reject signals due to backscatter; a slave resonance tracking loop coupled to an output of the first demodulation circuit , the slave resonance tracking loop configured to create an offset frequency signal from the transmission signal, the slave resonance tracking loop including, a second demodulation circuit configured to demodulate the output of the first demodulation circuit at a select tracking demodulation frequency that is two times a common modulation frequency; and characterized in that the hyperbolic modulation offset reducer circuit also comprises; a hyperbolic modulator offset control loop coupled to the output of the first demodulation circuit , the hyperbolic modulator offset control loop configured to create a common modulation signal from the transmission signal that is coupled to a common phase module in a silicon photonics chip of the resonator fiber optic gyro , the a hyperbolic modulator offset control loop including, a third demodulation circuit configured to demodulate the output of the demodulation circuit at a select harmonic frequency that is three times the common modulation frequency. an offset input to receive a transmission signal from a resonator; a first demodulation circuit configured to demodulate the received transmission signal using a sideband heterodyne detection modulation frequency to reject signals due to backscatter; a slave resonance tracking loop coupled to an output of the first demodulation circuit , the slave resonance tracking loop configured to create an offset frequency signal from the transmission signal, the slave resonance tracking loop including, a second demodulation circuit configured to demodulate the output of the first demodulation circuit at a select tracking demodulation frequency that is two times a common modulation frequency; and characterized in that the hyperbolic modulation offset reducer circuit also comprises; a hyperbolic modulator offset control loop coupled to the output of the first demodulation circuit , the hyperbolic modulator offset control loop configured to create a common modulation signal from the transmission signal that is coupled to a common phase module in a silicon photonics chip of the resonator fiber optic gyro , the a hyperbolic modulator offset control loop including, a third demodulation circuit configured to demodulate the output of the demodulation circuit at a select harmonic frequency that is three times the common modulation frequency.
Agricultural haymaking machine , specifically a tedder, comprising a chassis resting on the ground (B) by means of at least one wheel , the machine being coupled to a tractor (T) able to move it in a direction of advance (A), the machine comprising a carrier bearing a plurality of rotors , the carrier being swivel mounted with regard to the chassis around a central pin oriented transversally to the direction of advance (A), each rotor being driven around a respective drive axis , the machine comprising a lift actuator articulated to the chassis on one hand and to the carrier on another hand and being able to make the carrier pivot in relation to the chassis around the central pin , the machine being able to adopt a headland configuration in which the carrier is raised, as well as a work configuration in which the carrier rests on the ground (B) by means of a support , machine wherein the central pin is rigidly attached to the carrier , and the machine comprises a positioning actuator machine characterized in that the positioning actuator makes it possible to move the central pin relative to the chassis to change the position of the drive axes .
A method for manufacturing a low temperature poly-silicon (LTPS) thin film transistor (TFT), comprising a step of forming an active layer and an ohmic contact layer on a substrate, wherein the step of forming the active layer and the ohmic contact layer on the substrate comprises: forming an a-Si layer on the substrate; injecting foreign ions into a region of the a-Si layer where the ohmic contact layer is to be formed by ion injection, so as to form an initial ohmic contact layer at the region where the ohmic contact layer is to be formed, and refraining injecting the foreign ions into other region of the a-Si layer corresponding to a region occupied by the LTPS TFT in addition to the region of the a-Si layer where the ohmic contact layer is to be formed; subjecting the a-Si layer obtained after the ion injection without an annealing step in between to excimer laser annealing treatment so as to crystallize the a-Si layer into a poly-silicon layer, activate the injected ions and enable the initial ohmic contact layer to form the final ohmic contact layer; and patterning the poly-silicon layer obtained after the excimer laser annealing treatment, so as to form the active layer, wherein in the region occupied by the LTPS TFT, the poly-silicon layer located at a side of the ohmic contact layer away from the active layer is completely removed. forming an a-Si layer on the substrate; injecting foreign ions into a region of the a-Si layer where the ohmic contact layer is to be formed by ion injection, so as to form an initial ohmic contact layer at the region where the ohmic contact layer is to be formed, and refraining injecting the foreign ions into other region of the a-Si layer corresponding to a region occupied by the LTPS TFT in addition to the region of the a-Si layer where the ohmic contact layer is to be formed; subjecting the a-Si layer obtained after the ion injection without an annealing step in between to excimer laser annealing treatment so as to crystallize the a-Si layer into a poly-silicon layer, activate the injected ions and enable the initial ohmic contact layer to form the final ohmic contact layer; and patterning the poly-silicon layer obtained after the excimer laser annealing treatment, so as to form the active layer, wherein in the region occupied by the LTPS TFT, the poly-silicon layer located at a side of the ohmic contact layer away from the active layer is completely removed.
A bleed valve assembly of a gas turbine engine , comprising: two or more valve segments extending circumferentially around a central longitudinal axis (A) of the gas turbine engine; a first splice bracket spanning a first joint between a first valve segment and a second valve segment of the two or more valve segments, the first splice bracket secured to the first valve segment and the second valve segment; and a second splice bracket spanning a second joint between the first valve segment and the second valve segment, the second splice bracket secured to the first valve segment and the second valve segment; characterized in that : the first splice bracket is secured to the first valve segment and the second valve segment via a plurality of radially-extending boss openings in the first valve segment and the second valve segment . two or more valve segments extending circumferentially around a central longitudinal axis (A) of the gas turbine engine; a first splice bracket spanning a first joint between a first valve segment and a second valve segment of the two or more valve segments, the first splice bracket secured to the first valve segment and the second valve segment; and a second splice bracket spanning a second joint between the first valve segment and the second valve segment, the second splice bracket secured to the first valve segment and the second valve segment; characterized in that : the first splice bracket is secured to the first valve segment and the second valve segment via a plurality of radially-extending boss openings in the first valve segment and the second valve segment .
An optical add/drop multiplexer apparatus , wherein the optical add/drop multiplexer apparatus is an integrated optical chip, and the optical add/drop multiplexer apparatus comprises an input port , an output port , an add port and/or a drop port , a filter unit , and a waveband multiplexer/demultiplexer unit , wherein the filter unit comprises a plurality of microring filters, the filter unit is connected to the waveband multiplexer/demultiplexer unit , and the waveband multiplexer/demultiplexer unit is separately connected to the input port , the output port , the add port , if present, and the drop port , if present; the waveband multiplexer/demultiplexer unit is configured to input, based on wavelength of one or more input optical signals, the one or more input optical signals into a microring filter corresponding to a band to which the one or more input optical signals belong, wherein one band corresponds to at least one microring filter, each microring filter has a different resonance wavelength, and the one or more input optical signals comprise an optical signal at the input port and/or the add port , if present; the filter unit is configured to couple a target optical signal from the input port to the drop port , if present, and/or to couple a target optical signal from the add port , if present, to the output port , wherein the target optical signal is an optical signal, whose wavelength is equal to a resonance wavelength of the microring filter, in the input optical signal; and the waveband multiplexer/demultiplexer unit is further configured to output the target optical signal coupled to the output port and/or the drop port , if present. the filter unit comprises a plurality of microring filters, the filter unit is connected to the waveband multiplexer/demultiplexer unit , and the waveband multiplexer/demultiplexer unit is separately connected to the input port , the output port , the add port , if present, and the drop port , if present; the waveband multiplexer/demultiplexer unit is configured to input, based on wavelength of one or more input optical signals, the one or more input optical signals into a microring filter corresponding to a band to which the one or more input optical signals belong, wherein one band corresponds to at least one microring filter, each microring filter has a different resonance wavelength, and the one or more input optical signals comprise an optical signal at the input port and/or the add port , if present; the filter unit is configured to couple a target optical signal from the input port to the drop port , if present, and/or to couple a target optical signal from the add port , if present, to the output port , wherein the target optical signal is an optical signal, whose wavelength is equal to a resonance wavelength of the microring filter, in the input optical signal; and the waveband multiplexer/demultiplexer unit is further configured to output the target optical signal coupled to the output port and/or the drop port , if present.
A system for characterizing a biological sample by analyzing emission of fluorescent light from the biological sample upon excitation comprising: (a) a laser source configured to be connected to a biological sample via excitation fibers "ExF" , wherein the laser is configured to irradiate the biological sample with a laser pulse at a predetermined wavelength to cause the biological sample to produce a responsive fluorescence signal; (b) collection fibers "CF", wherein the collection fibers are arranged to collect the responsive fluorescence signal from the biological sample ; (c) a demultiplexer comprising a plurality of beam splitting devices, wherein each of the plurality of beam splitting devices is configured to split the responsive fluorescence signal at a pre-determined wavelength to obtain spectral bands, and (d) an optical delay device ; characterized in that the demultiplexer is configured to split the incoming signal so as to obtain spectral bands at wavelengths of less than 365 nm, 365 nm - 410 nm, 410 nm - 450 nm, 450 nm - 480 nm, 500 nm - 560 nm, 560 nm - 600 nm and greater than 600 nm. (a) a laser source configured to be connected to a biological sample via excitation fibers "ExF" , wherein the laser is configured to irradiate the biological sample with a laser pulse at a predetermined wavelength to cause the biological sample to produce a responsive fluorescence signal; (b) collection fibers "CF", wherein the collection fibers are arranged to collect the responsive fluorescence signal from the biological sample ; (c) a demultiplexer comprising a plurality of beam splitting devices, wherein each of the plurality of beam splitting devices is configured to split the responsive fluorescence signal at a pre-determined wavelength to obtain spectral bands, and (d) an optical delay device ; characterized in that the demultiplexer is configured to split the incoming signal so as to obtain spectral bands at wavelengths of less than 365 nm, 365 nm - 410 nm, 410 nm - 450 nm, 450 nm - 480 nm, 500 nm - 560 nm, 560 nm - 600 nm and greater than 600 nm.
An injection molding apparatus , characterized by comprising: a mold (110, 110', 110") having a mold cavity and an inner surface , wherein the inner surface faces the mold cavity ; an injection device adapted to inject a material into the mold cavity ; and at least one temperature sensing device disposed at the mold (110, 110', 110") and adapted to sense a temperature of the material in the mold cavity , wherein the temperature sensing device and the inner surface have a distance (d) therebetween wherein the mold (110, 110', 110") comprises a transparent portion , and the transparent portion is located at least between the mold cavity and the temperature sensing device , characterized in that the transparent portion is adapted to move relative to other portions of the mold (110, 110', 110") in a translation direction (D1). a mold (110, 110', 110") having a mold cavity and an inner surface , wherein the inner surface faces the mold cavity ; an injection device adapted to inject a material into the mold cavity ; and at least one temperature sensing device disposed at the mold (110, 110', 110") and adapted to sense a temperature of the material in the mold cavity , wherein the temperature sensing device and the inner surface have a distance (d) therebetween wherein the mold (110, 110', 110") comprises a transparent portion , and the transparent portion is located at least between the mold cavity and the temperature sensing device , characterized in that the transparent portion is adapted to move relative to other portions of the mold (110, 110', 110") in a translation direction (D1).
A lens module for a folded camera module, comprising: a barrel comprising a cavity surrounded by cavity walls ; and N lens elements L 1 to L N aligned along a lens module optical axis , wherein N is equal to or greater than 3, wherein a first lens element L 1 faces an object side and wherein only a first portion of lens element L 1 , downstream the object side lens surface, is completely surrounded by the cavity walls , wherein the first portion of lens element L 1 that is completely surrounded by the cavity walls has a diameter smaller than a diameter of another portion of lens element L 1 that is not completely surrounded by the cavity walls , wherein the height of the other portion of lens element L 1 that is not completely surrounded by the cavity walls is substantially equal to or has a height which is greater than the barrel height, wherein the cavity walls have an extremity which is shaped to act as a mechanical stop to prevent movement of the lens L1 in an X-Y plane, and wherein the first portion of the lens element L1 is shaped to fit the shape of the extremity such that the center of lens element L1 is substantially aligned with the optical axis . a barrel comprising a cavity surrounded by cavity walls ; and N lens elements L 1 to L N aligned along a lens module optical axis , wherein N is equal to or greater than 3, wherein a first lens element L 1 faces an object side and wherein only a first portion of lens element L 1 , downstream the object side lens surface, is completely surrounded by the cavity walls , wherein the first portion of lens element L 1 that is completely surrounded by the cavity walls has a diameter smaller than a diameter of another portion of lens element L 1 that is not completely surrounded by the cavity walls , wherein the height of the other portion of lens element L 1 that is not completely surrounded by the cavity walls is substantially equal to or has a height which is greater than the barrel height, wherein the cavity walls have an extremity which is shaped to act as a mechanical stop to prevent movement of the lens L1 in an X-Y plane, and wherein the first portion of the lens element L1 is shaped to fit the shape of the extremity such that the center of lens element L1 is substantially aligned with the optical axis .
A stopcock for a liquid channel of a medical endoscope , having a housing , a spring element and a plug rotatably mounted in the housing , wherein the plug in a working position lies with a conical surface against a seal surface of the housing and can be placed in a medium access position in which the conical surface and the seal surface have no contact and the housing and the plug remain connected, wherein the plug comprises one or more transverse grooves , in the outer wall of a conical piece , running transversely to the longitudinal axis of the conical piece and having straight groove bottoms , and the spring element in the medium access position engages with the one or more transverse grooves .