mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: encoding , with a first encoder, a primary sub-picture of a frame of video to obtain an encoded primary sub-picture of the frame of video; encoding , with a second encoder, a first secondary sub-picture of the frame of video to obtain an encoded first secondary sub-picture of the frame of video; encoding , with a third encoder, a second secondary sub-picture of the frame of video to obtain an encoded second secondary sub-picture of the frame of video, wherein the second secondary sub-picture is different from the first secondary sub-picture; combining the encoded primary sub-picture with the encoded first secondary sub-picture to obtain a first video stream; combining the encoded primary sub-picture with the encoded second secondary sub-picture to obtain a second video stream; and transmitting the first and second video streams to respective recipients; characterized by further comprising calculating a combined bit rate based on a bit rate of the encoded primary sub-picture and a highest bit rate of the encoded first and second secondary sub-pictures, and adjusting a quantization parameter based on whether the combined bit rate is within an acceptable bit rate range for succeeding encodings performed by the first, second and third encoders. encoding , with a first encoder, a primary sub-picture of a frame of video to obtain an encoded primary sub-picture of the frame of video; encoding , with a second encoder, a first secondary sub-picture of the frame of video to obtain an encoded first secondary sub-picture of the frame of video; encoding , with a third encoder, a second secondary sub-picture of the frame of video to obtain an encoded second secondary sub-picture of the frame of video, wherein the second secondary sub-picture is different from the first secondary sub-picture; combining the encoded primary sub-picture with the encoded first secondary sub-picture to obtain a first video stream; combining the encoded primary sub-picture with the encoded second secondary sub-picture to obtain a second video stream; and transmitting the first and second video streams to respective recipients; characterized by further comprising calculating a combined bit rate based on a bit rate of the encoded primary sub-picture and a highest bit rate of the encoded first and second secondary sub-pictures, and adjusting a quantization parameter based on whether the combined bit rate is within an acceptable bit rate range for succeeding encodings performed by the first, second and third encoders.
A hook block apparatus comprising: an upper portion comprising a sheave assembly for receiving a lifting rope of a hoisting device; a lower portion fixedly connected to the upper portion; a hook member which is rotatably connected to the lower portion; rotation means for rotating the hook member relative to the lower portion about a vertical axis, wherein the rotation means is self contained within the lower portion and wherein the rotation means is selectively operable from a remote location; a rotation sensor for sensing rotation of the hook member and adapted to sense the direction of rotation; wherein the rotation sensor is connected to the rotation means and the rotation means is adapted to apply a rotating force to the hook member in an opposite direction to that of unintended rotation of the hook member to prevent or impede unintended rotation of the hook member; characterized in that the rotation means is selectively disengageable from the hook member such that the hook member is freely rotatable relative to the lower portion. an upper portion comprising a sheave assembly for receiving a lifting rope of a hoisting device; a lower portion fixedly connected to the upper portion; a hook member which is rotatably connected to the lower portion; rotation means for rotating the hook member relative to the lower portion about a vertical axis, wherein the rotation means is self contained within the lower portion and wherein the rotation means is selectively operable from a remote location; a rotation sensor for sensing rotation of the hook member and adapted to sense the direction of rotation; wherein the rotation sensor is connected to the rotation means and the rotation means is adapted to apply a rotating force to the hook member in an opposite direction to that of unintended rotation of the hook member to prevent or impede unintended rotation of the hook member; characterized in that the rotation means is selectively disengageable from the hook member such that the hook member is freely rotatable relative to the lower portion.
A therapeutic peptide consisting of a sequence which is any of SEQ ID NOs: 1-11, or a therapeutic peptide consisting of a sequence which is any of SEQ ID NOs 1-11, wherein the peptide is cyclized by the addition of terminal cysteines.
An electrically powered motor vehicle, comprising: - a main frame ; - a front axle assembly ; and - a rear axle assembly , - wherein said axle assemblies each comprise an auxiliary supporting frame and two suspension units that connect two respective wheel supports to said auxiliary supporting frame , and - wherein at least one of said axle assemblies is a motor-driven axle with steering wheels, further comprising, mounted on the respective auxiliary supporting frame , an electric motor (M) for driving the wheels in rotation, a control unit (E) of said motor, a transmission unit for transmission of motion from the electric motor (M) to the wheels, and a steering device for steering the wheel supports, wherein said main frame includes: - a front frame subassembly , - a floor-panel subassembly , - a rear frame subassembly , and - a top frame subassembly , wherein the auxiliary supporting frames of said front and rear axle assemblies have attachment points (F2) bolted to corresponding attachment points (F1) of said front and rear frame subassemblies , wherein each of said frame subassemblies (40-43) comprises a lattice structure including steel box-section elements, preferably high-strength steel elements, and wherein the front and rear frame subassemblies have longitudinal struts designed to absorb impact energy, which have respectively front and rear ends connected together by cross members , wherein the aforesaid floor-panel subassembly defines one or more compartments for housing batteries for supplying the aforesaid electric motor (M), characterized in that said frame subassemblies are prearranged for being preassembled separately and subsequently assembled together to form the aforesaid main frame , wherein the aforesaid top frame subassembly incorporates the lateral uprights of the windscreen of the motor vehicle and at least one of the two intermediate uprights (B) of the motor vehicle, said rear frame subassembly including a plurality of cross members defining a resting surface for the rear seat of the motor vehicle. - a main frame ; - a front axle assembly ; and - a rear axle assembly , - wherein said axle assemblies each comprise an auxiliary supporting frame and two suspension units that connect two respective wheel supports to said auxiliary supporting frame , and - wherein at least one of said axle assemblies is a motor-driven axle with steering wheels, further comprising, mounted on the respective auxiliary supporting frame , an electric motor (M) for driving the wheels in rotation, a control unit (E) of said motor, a transmission unit for transmission of motion from the electric motor (M) to the wheels, and a steering device for steering the wheel supports, - a front frame subassembly , - a floor-panel subassembly , - a rear frame subassembly , and - a top frame subassembly ,
A medical device having a flat surface adapted for delivering one or more drugs, comprising: one or more drug coating layers on the flat surface , at least one of the drug coating layers having at least one barrier layer adapted for controlling a rate of flow of material across the at least one barrier layer , and further wherein the at least one barrier layer consists of drug modified by Neutral Beam irradiation.
A process for extracting seed-oil from an oil-containing seed product, comprising: a) providing the seed product to a grinder; b) providing a first liquid comprising a solvent to the grinder, and wherein the solvent is selected from the group consisting of; hexane, methyl alcohol, ethyl alcohol, propyl alcohol, iso-propyl alcohol, petroleum ether, and other solvents in the hexane series such as butane, pentane, and heptane and mixtures of the foregoing; c) grinding the seed product and the liquid to yield a slurry; d) subjecting the slurry to a slurry extraction and slurry separation step to yield a processed seed product and a liquid product, the liquid product comprising seed-oil and the solvent; and e) subjecting at least a first portion of the liquid product to an oil separation step to separate the seed-oil from the solvent to obtain a seed-oil product; wherein step (b) comprises recycling at least a second portion of the liquid product to the grinder; characterized in that step (d) comprises a multi-stage step including at least a first stage and a final stage, wherein in each stage, a stage feed slurry is mixed with a stage feed liquid, the stage feed liquid comprising seed-oil and solvent, to yield a stage secondary slurry, and the stage secondary slurry is processed to yield a stage outlet liquid comprising seed-oil and solvent and a stage outlet slurry comprising ground seed, and at least a portion of the stage outlet slurry of at least one stage is forwarded to a downstream stage and at least a portion of the stage outlet liquid of at least one stage is recycled to an upstream stage; the stage outlet slurry from the final stage is further processed to yield the processed seed product; and at least a portion of the stage outlet liquid from the first stage is removed to provide the liquid product. a) providing the seed product to a grinder; b) providing a first liquid comprising a solvent to the grinder, and wherein the solvent is selected from the group consisting of; hexane, methyl alcohol, ethyl alcohol, propyl alcohol, iso-propyl alcohol, petroleum ether, and other solvents in the hexane series such as butane, pentane, and heptane and mixtures of the foregoing; c) grinding the seed product and the liquid to yield a slurry; d) subjecting the slurry to a slurry extraction and slurry separation step to yield a processed seed product and a liquid product, the liquid product comprising seed-oil and the solvent; and e) subjecting at least a first portion of the liquid product to an oil separation step to separate the seed-oil from the solvent to obtain a seed-oil product;
Device for transporting containers, comprising - a carrying body with a container clamp comprising two gripping arms for holding a container by its shoulder, neck, or neck region, wherein each gripping arm is mounted on the carrying body so as to be pivotable about a pivot axis , ideally a vertical pivot axis , on the carrying body , - a control unit which is mounted so as to be rotatable about an axis of rotation in order to actuate the gripping arms , - an actuating device coupled to the control unit for actuating by means of a control cam , wherein - each gripping arm comprises at the outer end a gripping portion for receiving the container , and at an inner end , opposite the outer end , in each case a control slot , - the respective pivot axis is arranged between the two ends , - the control unit comprises a rotatably mounted basic body with control pins arranged on it, - each control is immersed into the respective control slot of the gripping arms or is connected to this in a positive fit, - with a rotational movement of the control unit , the control pins are moved in the control slots , in particular in opposing directions, and the gripping arms 9 are pivoted about the pivot axis between an open position and a gripping position. - a carrying body with a container clamp comprising two gripping arms for holding a container by its shoulder, neck, or neck region, wherein each gripping arm is mounted on the carrying body so as to be pivotable about a pivot axis , ideally a vertical pivot axis , on the carrying body , - a control unit which is mounted so as to be rotatable about an axis of rotation in order to actuate the gripping arms , - an actuating device coupled to the control unit for actuating by means of a control cam , wherein - each gripping arm comprises at the outer end a gripping portion for receiving the container , and at an inner end , opposite the outer end , in each case a control slot , - the respective pivot axis is arranged between the two ends , - the control unit comprises a rotatably mounted basic body with control pins arranged on it, - each control is immersed into the respective control slot of the gripping arms or is connected to this in a positive fit, - with a rotational movement of the control unit , the control pins are moved in the control slots , in particular in opposing directions, and the gripping arms 9 are pivoted about the pivot axis between an open position and a gripping position.
A method for reporting minimization of drive test, MDT, measurement information executed by a terminal in a wireless communication system, the method comprising: receiving , from a base station, a logged measurement configuration message including a MDT public land mobile network, PLMN, list being a subset of an equivalent public land mobile network, ePLMN, list for the terminal; determining whether the registered public land mobile network, RPLMN, matches one of at least one PLMN included in the received MDT PLMN list: performing MDT measurement and logging measurement result of the RPLMN, in case that the RPLMN matches one of the at least one PLMN included in the received MDT PLMN list; and reporting the logged measurement result to the base station. receiving , from a base station, a logged measurement configuration message including a MDT public land mobile network, PLMN, list being a subset of an equivalent public land mobile network, ePLMN, list for the terminal; determining whether the registered public land mobile network, RPLMN, matches one of at least one PLMN included in the received MDT PLMN list: performing MDT measurement and logging measurement result of the RPLMN, in case that the RPLMN matches one of the at least one PLMN included in the received MDT PLMN list; and reporting the logged measurement result to the base station.
A method of producing a water-in-oil soft butter product comprising: separating the fat and aqueous fractions of a concentrated cream, the concentrated cream having at least 80 percent by weight milkfat; heating the fat fraction; combining the fat and aqueous fractions to form a butter mixture, such that the mixture includes the same fat and aqueous fractions as the concentrated cream and is at least 80 percent by weight milkfat; processing the mixture using at least two steps of cooling, each cooling step followed by mixing and a final high shear mixing step to generate a fine, homogenous crystal structure in the water-in-oil soft butter product. separating the fat and aqueous fractions of a concentrated cream, the concentrated cream having at least 80 percent by weight milkfat; heating the fat fraction; combining the fat and aqueous fractions to form a butter mixture, such that the mixture includes the same fat and aqueous fractions as the concentrated cream and is at least 80 percent by weight milkfat; processing the mixture using at least two steps of cooling, each cooling step followed by mixing and a final high shear mixing step to generate a fine, homogenous crystal structure in the water-in-oil soft butter product.
A radiation imaging apparatus comprising: a radiation detection unit configured to convert received radiation into an electrical signal; a communication unit configured to perform wireless communication with an external device; electrical circuit boards (8a-d); a conductor arranged so as to cover the radiation detection unit and the electrical circuit boards; and an exterior at least partially formed by a non-conductive member and configured to contain the radiation detection unit, the communication unit, the electrical circuit boards, and the conductor; characterized in that , as seen in a radiation direction (X-ray), the electrical Z circuit boards are arranged behind the radiation detection unit, a portion of the conductor is arranged behind the electrical circuit boards, and the communication unit is arranged behind the portion of the conductor and between the exterior and the conductor, and the conductor has an opening for passing a cable connecting the electrical circuit boards and the communication unit. a radiation detection unit configured to convert received radiation into an electrical signal; a communication unit configured to perform wireless communication with an external device; electrical circuit boards (8a-d); a conductor arranged so as to cover the radiation detection unit and the electrical circuit boards; and an exterior at least partially formed by a non-conductive member and configured to contain the radiation detection unit, the communication unit, the electrical circuit boards, and the conductor; characterized in that , as seen in a radiation direction (X-ray), the electrical Z circuit boards are arranged behind the radiation detection unit, a portion of the conductor is arranged behind the electrical circuit boards, and the communication unit is arranged behind the portion of the conductor and between the exterior and the conductor, and the conductor has an opening for passing a cable connecting the electrical circuit boards and the communication unit.
A dressing assembly for providing reduced pressure to a moveable tissue site, comprising: a flexible bolster body having a first side and a second, inward-facing, side , the bolster body formed from a bolster material; wherein a first plurality of bolster modules are formed on the first side of the bolster body , each bolster module having a bolster ridge; and a drape extending over the bolster ridges of the first side of the bolster body , wherein the drape is sized to extend beyond a peripheral edge of the bolster body and to thereby form a drape extension ; wherein the drape extension has a first side and a second inward-facing side , and wherein the drape comprises a sealing apparatus for providing a fluid seal against an epidermis of a patient, which allows a reduced pressure to be maintained by a reduced-pressure subsystem . a flexible bolster body having a first side and a second, inward-facing, side , the bolster body formed from a bolster material; wherein a first plurality of bolster modules are formed on the first side of the bolster body , each bolster module having a bolster ridge; and a drape extending over the bolster ridges of the first side of the bolster body , wherein the drape is sized to extend beyond a peripheral edge of the bolster body and to thereby form a drape extension ; wherein the drape extension has a first side and a second inward-facing side , and wherein the drape comprises a sealing apparatus for providing a fluid seal against an epidermis of a patient, which allows a reduced pressure to be maintained by a reduced-pressure subsystem .
A method for preserving the privacy of persons detected by a camera of a smart device, like a smart glass, the method comprising the steps: taking at least one image of a face by means of the camera of the smart device, detecting a face in the image taken by the camera, generating a state signal if a face is detected in the image, tracking identity features of the detected face in case a state signal is generated; and de-identifying identity features in the taken image by removing facial identification information from the image, wherein the method is implemented as a program or framework which is located on a layer directly above the operating system kernel (i) and below an application framework layer in the smart device, wherein said former layer is not manipulatable/accessible by applications programmed by application developers. taking at least one image of a face by means of the camera of the smart device, detecting a face in the image taken by the camera, generating a state signal if a face is detected in the image, tracking identity features of the detected face in case a state signal is generated; and de-identifying identity features in the taken image by removing facial identification information from the image, wherein the method is implemented as a program or framework which is located on a layer directly above the operating system kernel (i) and below an application framework layer in the smart device, wherein said former layer is not manipulatable/accessible by applications programmed by application developers.
A receiver, wherein the receiver is configured to receive encoded data over a channel from a transmitter, wherein the data is parity-check encoded to obtain a codeword, wherein the codeword is defined by a plurality of variable nodes associated with a plurality of the check nodes of a bipartite graph representing the code, wherein the codeword is received over the channel such that certain variable nodes, which are associated with a subset of the check nodes of the bipartite graph, are received prior to other variable nodes, and wherein the certain variable nodes define a subcodeword known by the receiver; wherein the receiver is configured to estimate a decodability of the transmitted codeword using the subcodeword prior to receiving all variable nodes of the codeword; wherein, responsive to an estimation indicating that the codeword cannot be decoded, the receiver is configured to request from the transmitter additional redundancy; wherein, responsive to an estimation indicating that the codeword can be decoded, the receiver is configured to signal the transmitter to stop transmitting additional redundancy, and wherein, to estimate the decodability of the transmitted codeword, the receiver is configured to take into account in addition one or more of the channel quality, the channel estimation, and Cyclic Redundancy Check, CRC, symbols. the receiver is configured to receive encoded data over a channel from a transmitter, wherein the data is parity-check encoded to obtain a codeword, wherein the codeword is defined by a plurality of variable nodes associated with a plurality of the check nodes of a bipartite graph representing the code, wherein the codeword is received over the channel such that certain variable nodes, which are associated with a subset of the check nodes of the bipartite graph, are received prior to other variable nodes, and wherein the certain variable nodes define a subcodeword known by the receiver; wherein the receiver is configured to estimate a decodability of the transmitted codeword using the subcodeword prior to receiving all variable nodes of the codeword; wherein, responsive to an estimation indicating that the codeword cannot be decoded, the receiver is configured to request from the transmitter additional redundancy; wherein, responsive to an estimation indicating that the codeword can be decoded, the receiver is configured to signal the transmitter to stop transmitting additional redundancy, and wherein, to estimate the decodability of the transmitted codeword, the receiver is configured to take into account in addition one or more of the channel quality, the channel estimation, and Cyclic Redundancy Check, CRC, symbols.