mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for transmitting data in a frequency division multiple access based communication system, the apparatus comprising: a symbol block generator for generating a plurality of symbol blocks within one Transmission Time Interval, TTI, when control information to be transmitted exists in the TTI, wherein a predetermined symbol block of the plurality of symbol blocks comprises the control information and data to be transmitted, wherein the remaining symbol blocks of the plurality of symbol blocks comprise an entire predetermined symbol block for a pilot signal and symbol blocks for data without control information; a Fast Fourier Transform, FFT, unit for performing FFT on each of the plurality of symbol blocks at a corresponding symbol block period; and an Inverse Fast Fourier Transform, IFFT, unit for performing IFFT on signals output from the FFT unit and then transmitting the signals, wherein the IFFT unit is further configured to map outputs of the FFT unit to the inputs of the IFFT unit according to a mapping rule corresponding to a localized frequency domain multiple access, LFDMA, or an interleaved frequency domain multiple access, IFDMA, technique. a symbol block generator for generating a plurality of symbol blocks within one Transmission Time Interval, TTI, when control information to be transmitted exists in the TTI, wherein a predetermined symbol block of the plurality of symbol blocks comprises the control information and data to be transmitted, wherein the remaining symbol blocks of the plurality of symbol blocks comprise an entire predetermined symbol block for a pilot signal and symbol blocks for data without control information; a Fast Fourier Transform, FFT, unit for performing FFT on each of the plurality of symbol blocks at a corresponding symbol block period; and an Inverse Fast Fourier Transform, IFFT, unit for performing IFFT on signals output from the FFT unit and then transmitting the signals, wherein the IFFT unit is further configured to map outputs of the FFT unit to the inputs of the IFFT unit according to a mapping rule corresponding to a localized frequency domain multiple access, LFDMA, or an interleaved frequency domain multiple access, IFDMA, technique.
Machine for processing and/or producing food, having a machine housing and machine feet for setting up the machine on the floor of a room, wherein the machine housing has a base plate and side walls defining an interior cavity in which electrical and/or mechanical machine components are arranged, wherein the machine feet are connected to the base plate of the machine housing in such a manner that said base plate is spaced apart from the floor by a gap when the machine is set up on the floor , characterized in that on the underside of the base plate facing away from the interior cavity of the machine housing , the machine has a cover plate that can be detachably connected to the machine housing , which cover plate covers the underside of the base plate in planar fashion when it is connected to the machine housing .
A method of generating a predictive model for determining the amount of crystallinity of an active pharmaceutical ingredient (API) in an amorphous solid dispersion or solid-state solution comprising the steps of; (i) subjecting a plurality of reference samples of dispersions or solutions spanning a range of API crystallinity to UV/vis spectroscopy, (ii) measuring a reflectance and/or transmission spectrum of each reference sample, and (iii) processing the spectra gathered in step (ii) to generate a predictive crystallinity model preferably, wherein the number of reference samples is 5 or more; and/or wherein the spectra are pre-processed before step (iii) to normalise and/or smooth the spectra and/or wherein the spectra of the reference samples are processed to derive a feature that correlates with crystallinity across at least a portion of said range of crystallinity, preferably wherein said feature comprises: at least a first principle component derived from principle components analysis (PCA) of the spectra, optionally wherein the variance of said first principle component by crystallinity is substantially linear across the range of crystallinity of said plurality of dispersions or solutions; or a lightness value L* of CIELAB colour space derived from the spectra. (i) subjecting a plurality of reference samples of dispersions or solutions spanning a range of API crystallinity to UV/vis spectroscopy, (ii) measuring a reflectance and/or transmission spectrum of each reference sample, and (iii) processing the spectra gathered in step (ii) to generate a predictive crystallinity model wherein the number of reference samples is 5 or more; and/or wherein the spectra are pre-processed before step (iii) to normalise and/or smooth the spectra and/or wherein the spectra of the reference samples are processed to derive a feature that correlates with crystallinity across at least a portion of said range of crystallinity, preferably wherein said feature comprises: at least a first principle component derived from principle components analysis (PCA) of the spectra, optionally wherein the variance of said first principle component by crystallinity is substantially linear across the range of crystallinity of said plurality of dispersions or solutions; or a lightness value L* of CIELAB colour space derived from the spectra. at least a first principle component derived from principle components analysis (PCA) of the spectra, optionally wherein the variance of said first principle component by crystallinity is substantially linear across the range of crystallinity of said plurality of dispersions or solutions; or a lightness value L* of CIELAB colour space derived from the spectra.
A method for producing molded parts , in particular dental molded parts from a sinterable mixing compound using a cold casting mold having a cavity that corresponds geometrically to the molded part, in particular dental molded part and at least one first opening opening into the cavity and/or leading out of the cavity , having the following method steps: producing the cold casting mold by means of an additive material construction method, in particular a 3D printing method using a 3D printer , from a starting material , wherein the cavity is created on the basis of a digital data set, in particular based on a three-dimensional model of the oral cavity of a patient, filling the cavity of the cold casting mold via the at least one first opening with the sinterable mixing compound , curing and/or solidifying the sinterable mixing compound in the cavity of the cold casting mold , characterized in that, the cold casting mold has at least one second opening opening into the cavity and/or leading out of the cavity , wherein, in particular during steps and , gases and/or liquids contained and/or enclosed in the sinterable mixing compound are discharged from the cavity via the at least one second opening , thermally and/or thermochemically decomposing the cold casting mold at a temperature in a temperature range from 200°C to 2500°C, sintering the sinterable mixing compound to final hardness at a temperature in a temperature range from 900°C to 2500°C until a molded part , in particular a dental molded part , such as a denture is obtained. producing the cold casting mold by means of an additive material construction method, in particular a 3D printing method using a 3D printer , from a starting material , wherein the cavity is created on the basis of a digital data set, in particular based on a three-dimensional model of the oral cavity of a patient, filling the cavity of the cold casting mold via the at least one first opening with the sinterable mixing compound , curing and/or solidifying the sinterable mixing compound in the cavity of the cold casting mold , thermally and/or thermochemically decomposing the cold casting mold at a temperature in a temperature range from 200°C to 2500°C, sintering the sinterable mixing compound to final hardness at a temperature in a temperature range from 900°C to 2500°C until a molded part , in particular a dental molded part , such as a denture is obtained.
Coupling connecting a fluid pipe and an annular support, the coupling comprising the pipe, the annular support, and a domed plate forming a ball swivel fixed around the pipe , the ball swivel moreover being in contact with an annular sleeve , contained in a housing of the annular support, the ball swivel comprising an inner plate and an outer plate , the inner plate being welded by one of its ends to the pipe , the other end simply resting against the pipe , with or without peripheral clearance, the outer plate partially overlapping the inner plate .
A mobile cage system for posterior or lateral insertion in an intervertebral disc space, said system comprising: a. a first cap having a first cap first end , a first cap second end opposite the first cap first end , a first cap inner surface , a first cap outer surface , a first cap concave indentation disposed in the first cap inner surface , and a first cap loading indentation disposed in the first cap inner surface at the first cap second end , wherein at least a portion of the first cap outer surface is porous; b. a second cap having a second cap first end , a second cap second end opposite the second cap first end , a second cap inner surface facing the first cap inner surface of the first cap , a second cap outer surface , a second cap concave indentation disposed in the second cap inner surface , and a second cap loading indentation disposed in the second cap inner surface at the second cap second end , wherein at least a portion of the second cap outer surface is porous; and c. a nucleus disposed between the first cap and second cap and cradled by the first cap concave indentation and second cap concave indentation , the system allows for motion of at least one cap relative to the nucleus characterised in that the caps move between a collapsed position wherein the first cap inner surface and second cap inner surface are in contact and the first cap concave indentation and second cap concave indentation are aligned and a separated position wherein the caps are positioned a distance apart. a. a first cap having a first cap first end , a first cap second end opposite the first cap first end , a first cap inner surface , a first cap outer surface , a first cap concave indentation disposed in the first cap inner surface , and a first cap loading indentation disposed in the first cap inner surface at the first cap second end , wherein at least a portion of the first cap outer surface is porous; b. a second cap having a second cap first end , a second cap second end opposite the second cap first end , a second cap inner surface facing the first cap inner surface of the first cap , a second cap outer surface , a second cap concave indentation disposed in the second cap inner surface , and a second cap loading indentation disposed in the second cap inner surface at the second cap second end , wherein at least a portion of the second cap outer surface is porous; and c. a nucleus disposed between the first cap and second cap and cradled by the first cap concave indentation and second cap concave indentation , the system allows for motion of at least one cap relative to the nucleus
A structured bag for cell culture comprising: a top portion; a bottom portion having a shape; and a sidewall extending between the top portion and the bottom portion and at least partially defining an interior compartment for receiving fluid, wherein the bottom portion is configured to maintain the shape to support the structured bag such that the structured bag is free standing when placed on a surface, and characterised in that the bottom portion and at least one of the top portion and the sidewall is formed from a flexible material, and wherein the flexible material of the bottom portion is thicker than the flexible material of the at least one of the top portion and the sidewall. a top portion; a bottom portion having a shape; and a sidewall extending between the top portion and the bottom portion and at least partially defining an interior compartment for receiving fluid, wherein the bottom portion is configured to maintain the shape to support the structured bag such that the structured bag is free standing when placed on a surface, and characterised in that the bottom portion and at least one of the top portion and the sidewall is formed from a flexible material, and wherein the flexible material of the bottom portion is thicker than the flexible material of the at least one of the top portion and the sidewall.
A flexible radio-frequency identification, RFID, tag device comprising: a flexible material ; a channel formed in the flexible material; a conductor positioned in the channel, wherein the conductor forms an antenna for said RFID tag device when coupled to an RFID chip, characterized in that the flexible material is comprised of a top layer and a bottom layer , wherein the top layer is capable of absorbing laser energy at a given wavelength and the bottom layer does not absorb laser energy at said given wavelength. a flexible material ; a channel formed in the flexible material; a conductor positioned in the channel, wherein the conductor forms an antenna for said RFID tag device when coupled to an RFID chip, characterized in that the flexible material is comprised of a top layer and a bottom layer , wherein the top layer is capable of absorbing laser energy at a given wavelength and the bottom layer does not absorb laser energy at said given wavelength.
An exhaust system for an internal combustion engine ; the exhaust system comprises: at least one an exhaust duct , which originates from the internal combustion engine ; at least one exhaust gas treatment device , which is arranged along the exhaust duct ; and a silencing device , which is arranged along the exhaust duct downstream of the exhaust gas treatment device and comprises a silencing valve , which intercepts the exhaust duct and is movable between a completely open position and a completely closed position; wherein, in the completely closed position, the silencing valve has a first free section for the passage of the exhaust gases having a first area (A1) other than zero, so that the exhaust gases can flow through the silencing valve even when the silencing valve is in the completely closed position; and wherein, in the completely closed position, the first free section consists of two slits , which are separate from one another and are arranged at opposite ends of a shutter of the silencing valve ; the exhaust system is characterized in that each slit of the first free section has the shape of a crescent of the moon. at least one an exhaust duct , which originates from the internal combustion engine ; at least one exhaust gas treatment device , which is arranged along the exhaust duct ; and a silencing device , which is arranged along the exhaust duct downstream of the exhaust gas treatment device and comprises a silencing valve , which intercepts the exhaust duct and is movable between a completely open position and a completely closed position; wherein, in the completely closed position, the silencing valve has a first free section for the passage of the exhaust gases having a first area (A1) other than zero, so that the exhaust gases can flow through the silencing valve even when the silencing valve is in the completely closed position; and wherein, in the completely closed position, the first free section consists of two slits , which are separate from one another and are arranged at opposite ends of a shutter of the silencing valve ; the exhaust system is characterized in that each slit of the first free section has the shape of a crescent of the moon.
A method for imaging a field of view comprising a target containing a luminescence substance, wherein the method comprises: providing , to a computing device , a luminescence image (205;205F) of the field of view , the luminescence image (205;205F) comprising a plurality of luminescence values representative of a luminescence light being emitted by the luminescence substance from corresponding locations of the field of view , setting (512-552), by the computing device , an analysis region (225;260) to a portion of the luminescence image (205;205F) surrounding a suspected representation of the target , segmenting (554-556), by the computing device , the analysis region (225;260) into a detection segment (230d;265d) and a non-detection segment (230n;265n) representative of detection of the luminescence agent and of non-detection of the luminescence agent, respectively, according to the luminescence values only of the analysis region (225;260), the method being characterized in that it further comprises: determining (558-574), by the computing device , a verification indicator based on a quality indicator of said segmenting (554-556) the analysis region (225;260), and displaying (576-586), by the computing device , the luminescence image (205;205F) with the detection segment (230d;265d) being highlighted according to the verification indicator. providing , to a computing device , a luminescence image (205;205F) of the field of view , the luminescence image (205;205F) comprising a plurality of luminescence values representative of a luminescence light being emitted by the luminescence substance from corresponding locations of the field of view , setting (512-552), by the computing device , an analysis region (225;260) to a portion of the luminescence image (205;205F) surrounding a suspected representation of the target , segmenting (554-556), by the computing device , the analysis region (225;260) into a detection segment (230d;265d) and a non-detection segment (230n;265n) representative of detection of the luminescence agent and of non-detection of the luminescence agent, respectively, according to the luminescence values only of the analysis region (225;260), the method being characterized in that it further comprises: determining (558-574), by the computing device , a verification indicator based on a quality indicator of said segmenting (554-556) the analysis region (225;260), and displaying (576-586), by the computing device , the luminescence image (205;205F) with the detection segment (230d;265d) being highlighted according to the verification indicator. determining (558-574), by the computing device , a verification indicator based on a quality indicator of said segmenting (554-556) the analysis region (225;260), and displaying (576-586), by the computing device , the luminescence image (205;205F) with the detection segment (230d;265d) being highlighted according to the verification indicator.
A method for checking the integrity of the processing of a radio-navigation signal emitted by a satellite (SAT i ) of a satellite positioning system, said signal being received by a receiver having reception means and processing means , said processing means comprising a linear anti-interference filter , said integrity checking method being characterised in that it has at least a first phase of detection of a risk of false lock-on comprising the following steps: - a step of recovery of a nominal theoretical self-correlation function (A 0 )of the received signal not processed by the linear anti-interference filter; - a step of determination of a mean theoretical self-correlation function (A) of said signal received and processed by the linear anti-interference filter over a defined integration period (T mean ); - a step of determination of the number of local maxima of the modulus or of the modulus squared of the mean theoretical self-correlation function, a risk of false lock-on being detected if said number of local maxima is greater than or equal to two. - a step of recovery of a nominal theoretical self-correlation function (A 0 )of the received signal not processed by the linear anti-interference filter; - a step of determination of a mean theoretical self-correlation function (A) of said signal received and processed by the linear anti-interference filter over a defined integration period (T mean ); - a step of determination of the number of local maxima of the modulus or of the modulus squared of the mean theoretical self-correlation function, a risk of false lock-on being detected if said number of local maxima is greater than or equal to two.
A chinstrap harness for a safety helmet, the chinstrap harness comprising first and second elongate side sections of flexible material, each side section having a first end and an opposing second end, wherein said first end comprises means to connect said chinstrap harness to a safety helmet, and the opposing second end of each side section includes means for releasably coupling said side sections adjacent a user's face, in use, said first side section incorporating along its length, and intermediate its first and second ends, a safety device coupled across a break in said second side section, said safety device being selectively configurable between a first configuration, in which said safety device is free to release when a tensile force applied to said chinstrap harness exceeds a first predetermined threshold, and a second configuration, in which it can sustain, without releasing, a tensile force of at least a second predetermined threshold, said second predetermined threshold being greater than said first predetermined threshold; characterised in that said safety device (10 comprises male and female component parts configured, in use, to be connected together across the break, and a manually operable switching mechanism including a switch moveable between a first position corresponding to a first configuration of said chinstrap harness, and a second position corresponding to a second configuration of said chinstrap harness.
A die-cutting machine comprising a gripper bar positioning device, a gripper bar disposed on a chain, a stripping unit, and at least two sets of die-cutting units, the papers passing through the die-cutting units transported by the gripper bar , characterized in that the gripper bar positioning device comprises a front positioning module, a rear positioning module and a stripping unit positioning module; the front positioning module is disposed at the input end of the first set of die-cutting unit, the rear positioning module is disposed at the output end of each die-cutting unit, the stripping unit positioning module is disposed at the output end of the stripping unit, the front positioning module, the rear positioning module, the stripping unit positioning module each comprising a positioning swing rod , the reference plane of the positioning swing rod of the front positioning module cooperating with the positioning surface disposed behind the gripper bar , and the reference axis of the positioning swing rod of the rear positioning module and the stripping unit positioning module cooperating with the positioning surface disposed behind the gripper bar .