mhurhangee/patent-ind-claim-en huggingface dataset:
A method for perceiving physical bodies (O) having the following steps, implemented by a data processing module (MTD1, MTD2): a) acquisition of a plurality of distance measurements (z 1 ... z NC ) of said physical bodies arising from one or more sensors (C 1 ... C NC ); b) acquisition from a device outside of the data processing module, or computation on the basis of at least one signal (SPO) received from outside the data processing module, of at least one value of a priori probability of occupancy of the cells of an occupancy grid; c) application, to each said distance measurement, of an inverse model of the corresponding sensor on said occupancy grid (GO) providing a discretized spatial representation of an environment of said sensor, so as to determine a probability of occupancy by a physical body of a set of cells of said occupancy grid, each said inverse sensor model being a discrete model, associating with each cell of the corresponding occupancy grid, and for each distance measurement, a probability class chosen inside one and the same set of finite cardinality, each said probability class being identified by an integer index; and d) construction of a consolidated occupancy grid each cell of which exhibits an occupancy probability computed by fusing the occupancy probabilities estimated during step c), the probability of occupancy of each cell of the consolidated occupancy grid being determined by means of integer computations performed on the indices of the probability classes determined during said step c), and as a function of said or of a said a priori occupancy probability. a) acquisition of a plurality of distance measurements (z 1 ... z NC ) of said physical bodies arising from one or more sensors (C 1 ... C NC ); b) acquisition from a device outside of the data processing module, or computation on the basis of at least one signal (SPO) received from outside the data processing module, of at least one value of a priori probability of occupancy of the cells of an occupancy grid; c) application, to each said distance measurement, of an inverse model of the corresponding sensor on said occupancy grid (GO) providing a discretized spatial representation of an environment of said sensor, so as to determine a probability of occupancy by a physical body of a set of cells of said occupancy grid, each said inverse sensor model being a discrete model, associating with each cell of the corresponding occupancy grid, and for each distance measurement, a probability class chosen inside one and the same set of finite cardinality, each said probability class being identified by an integer index; and d) construction of a consolidated occupancy grid each cell of which exhibits an occupancy probability computed by fusing the occupancy probabilities estimated during step c), the probability of occupancy of each cell of the consolidated occupancy grid being determined by means of integer computations performed on the indices of the probability classes determined during said step c), and as a function of said or of a said a priori occupancy probability.
A method for rendering a textile antimicrobial, comprising a main process cycle comprising the steps of: - treating the textile in a main liquor application process such as padding or preferably exhaustion, the liquor of the main liquor application process comprising at least one amino acid and/or at least one amino acid derivative, wherein the amino acid and/or amino acid derivative has an isoelectric point equal to or above 7, preferably equal to or above 8, more preferably equal to or above 8.5, and/or has a pH-independent positive charge - subjecting the treated textile to a heat treatment, - optionally washing the heat-treated textile, and - optionally drying the washed textile, and the method preferably comprising a secondary process cycle being performed after the steps of the main process cycle and comprising the steps of: - treating the textile using a secondary liquor application process, such as an exhaust or preferably a padding process, wherein the liquor of the secondary liquor application process comprises at least one amino acid, at least one amino acid derivative, and/or at least one antimicrobial agent; - subjecting the treated textile to a heat treatment, - optionally washing the heat-treated textile, and optionally drying the washed textile and wherein the liquor of the main and/or secondary liquor application process comprises glucosamine and/or polyglucosamine. - treating the textile in a main liquor application process such as padding or preferably exhaustion, the liquor of the main liquor application process comprising at least one amino acid and/or at least one amino acid derivative, wherein the amino acid and/or amino acid derivative has an isoelectric point equal to or above 7, preferably equal to or above 8, more preferably equal to or above 8.5, and/or has a pH-independent positive charge - subjecting the treated textile to a heat treatment, - optionally washing the heat-treated textile, and - optionally drying the washed textile, - treating the textile using a secondary liquor application process, such as an exhaust or preferably a padding process, wherein the liquor of the secondary liquor application process comprises at least one amino acid, at least one amino acid derivative, and/or at least one antimicrobial agent; - subjecting the treated textile to a heat treatment, - optionally washing the heat-treated textile, and
A rotary disk for use in a gas turbine engine , comprising: a rotor (22;54;72;80) that includes respective blades (56;74;82), and a spacer attached to the rotor (22;54;72;80) for positioning the rotor (22;54;72;80); characterised in that the spacer comprises a fiber reinforced composite material and a seal , wherein the fiber reinforced composite material circumscribes the spacer , and the rotor is an integrally bladed ring being reinforced with a bladed ring fibre and a bladed ring substrate to form a bladed ring composite material . a rotor (22;54;72;80) that includes respective blades (56;74;82), and a spacer attached to the rotor (22;54;72;80) for positioning the rotor (22;54;72;80); characterised in that the spacer comprises a fiber reinforced composite material and a seal , wherein the fiber reinforced composite material circumscribes the spacer , and the rotor is an integrally bladed ring being reinforced with a bladed ring fibre and a bladed ring substrate to form a bladed ring composite material .
Ultrasonic sensor arrangement for a motor vehicle, comprising a trim part and an ultrasonic sensor , which comprises a pot-shaped membrane for emitting and/or receiving ultrasonic signals, and comprising a stiffening element arranged around the membrane and having a passage opening , through which the membrane extends, wherein the ultrasonic sensor and the stiffening element are arranged on a rear side of the trim part so that the ultrasonic sensor is configured for emitting and/or receiving the ultrasonic signals through the trim part , characterized in that between the rear side of the trim part and a front side of the stiffening element , which faces the trim part , a plate-shaped intermediate element made of metal is arranged, which contacts the rear side of the trim part , on the one hand, and the front side of the stiffening element , on the other hand, and is formed from a different material than the stiffening element and the trim part , wherein the material of the intermediate element has a longitudinal expansion coefficient, which lies between the coefficients of the respective materials of the stiffening element and the trim part , wherein the intermediate element is glued together with the rear side of the trim part , on the one hand, and with the front side of the stiffening element , on the other hand.
Compensation device in the form of a tank, the housing of which, at least in one of its housing walls , comprises at least one inlet and one outlet for receiving or discharging fluid and can be topped up with fluid, wherein at least one compensation body is arranged inside the housing , said body being furnished at least partially with an elastically flexible separating wall , delimiting its inner chamber, wherein the inner chamber is at least partially in a pressure-compensating connection with the environment by penetration through one of the housing walls , and wherein the housing , apart from the presence of penetration points, such as the respective inlet and outlet and the respective pressure-compensating connection , forms a closed enclosure for the fluid received in the housing , characterised in that the housing receives an additional fluid volume, which may be formed by a variable volume of the fluid and/or an increase in the volume of the fluid stored in the housing when the temperature rises, said volume corresponding to no more than the displacement volume that arises as a result of deformation of the separating wall of the respective compensation body in the direction of its inner chamber, in that the compensation body , as an elastically flexible separating wall, comprises a flexible accumulator bladder made from elastomer material, the inner chamber of which is at least partially filled with foam material , in that , to protect the accumulator bladder from pressure pulsing and pressure surges, said accumulator bladder is received in a protective housing , which is at least partially furnished with at least one passage point for a fluid passage, in that the flexible accumulator bladder , together with its protective housing , on its upper side facing an upper housing wall of the housing , forming the penetration for an air exchange between the inner volume of the accumulator bladder and the environment, is fixed in a stationary manner to this upper housing wall by means of a holder .
A method for wireless communications by a base station, BS, the method comprising: generating a primary synchronization signal, PSS, utilizing a first code sequence and a cover code applied to the first code sequence over a first number of symbols within one or more subframes, wherein the cover code comprises a computer generated random binary sequence having an asymmetrical run length greater than or equal to two; generating a secondary synchronization signal, SSS, based on a second code sequence over a second number of symbols within one or more subframes; and transmitting the PSS and the SSS to a first type of a user equipment, UE, that communicates on one or more narrowband regions of wider system bandwidth. generating a primary synchronization signal, PSS, utilizing a first code sequence and a cover code applied to the first code sequence over a first number of symbols within one or more subframes, wherein the cover code comprises a computer generated random binary sequence having an asymmetrical run length greater than or equal to two; generating a secondary synchronization signal, SSS, based on a second code sequence over a second number of symbols within one or more subframes; and transmitting the PSS and the SSS to a first type of a user equipment, UE, that communicates on one or more narrowband regions of wider system bandwidth.
Method for controlling phytopathogenic fungi of the genus Phoma spp. comprising applying Coniothyrium minitans strain CON/M/91-08 in an effective amount to the root system of a plant, to harvest residues or to the soil on which a crop plant grows or is intended to grow.
A method for assembling a target nucleic acid, the method comprising: (a) providing a plurality of double-stranded polynucleotides, each polynucleotide comprising a flanking region on the 3' end, or 5' end, or 3' end and 5' end, wherein the flanking region comprises a first recognition site and a second recognition site, wherein the plurality of double-stranded polynucleotides together comprise the target nucleic acid; (b) nicking, in vitro, a first strand of each polynucleotide with a first nickase to produce a first nick, wherein the first nickase is configured to recognize and bind to the first recognition site; and (c) nicking, in vitro, a second strand of each polynucleotide with a second nickase to produce a second nick, wherein the second nickase is configured to recognize and bind to the second recognition site, thereby producing cleaved polynucleotide fragments, each having an overhang defined by the first nick and the second nick, wherein the overhang is predesigned by selecting the first and second recognition sites, and (d) assembling the cleaved polynucleotide fragments at the overhangs to form the target nucleic acid, wherein a first overhang of a first cleaved polynucleotide fragment is complementary to a second overhang of a second cleaved polynucleotide fragment, and wherein said assembling comprises ligating the assembled cleaved polynucleotide fragments to produce a ligated product, wherein at least one of the plurality of double-stranded polynucleotides was provided on a solid support. (a) providing a plurality of double-stranded polynucleotides, each polynucleotide comprising a flanking region on the 3' end, or 5' end, or 3' end and 5' end, wherein the flanking region comprises a first recognition site and a second recognition site, wherein the plurality of double-stranded polynucleotides together comprise the target nucleic acid; (b) nicking, in vitro, a first strand of each polynucleotide with a first nickase to produce a first nick, wherein the first nickase is configured to recognize and bind to the first recognition site; and (c) nicking, in vitro, a second strand of each polynucleotide with a second nickase to produce a second nick, wherein the second nickase is configured to recognize and bind to the second recognition site, thereby producing cleaved polynucleotide fragments, each having an overhang defined by the first nick and the second nick, wherein the overhang is predesigned by selecting the first and second recognition sites, and (d) assembling the cleaved polynucleotide fragments at the overhangs to form the target nucleic acid, wherein a first overhang of a first cleaved polynucleotide fragment is complementary to a second overhang of a second cleaved polynucleotide fragment, and wherein said assembling comprises ligating the assembled cleaved polynucleotide fragments to produce a ligated product,
Suspension system, in particular cab suspension, comprising at least one first hydraulic cylinder with a piston chamber and a rod chamber , wherein the first hydraulic cylinder is connected to at least one hydraulic accumulator for retraction and extension purposes, wherein the first hydraulic cylinder is connected to at least one further hydraulic cylinder via a cross-connected circuit, wherein the hydraulic cylinders are inter connected crosswise and permit a fluid flow from the piston chambers to the rod chambers of the hydraulic cylinders , and the system has a branch for dividing a fluid flow from the piston chamber into a partial flow flowing to a rod chamber of the further hydraulic cylinder and into a partial flow flowing through a throttle valve to a hydraulic accumulator , characterized in that a backflow preventer is arranged in a fluid path between the piston chamber and the throttle valve , said backflow preventer opening during the retraction operation and closing during the extension operation.
A liquid pharmaceutical composition comprising: 20 to about 70 mg/mL etanercept (including any biosimilar thereof); 10 to 40 mM buffer system, wherein the buffer system is a phosphate buffer system and/or a citrate buffer system; 20 to 150 mM sodium chloride; 0.5 to 5 wt% sucrose; and either aspartic acid or a combination of lysine and proline; wherein: the liquid pharmaceutical composition has a pH between pH 6.1 and 6.5; the liquid pharmaceutical composition is either free of arginine or comprises arginine in a concentration of at most 0.1 mM; the liquid pharmaceutical composition is either free of sulphur-containing amino acid(s) or comprises sulphur-containing amino acid(s) in a concentration of at most 0.1 mM; the liquid pharmaceutical is either free of nitrogen-containing chelating agent(s) or comprises nitrogen-containing chelating agent(s) in a concentration of at most 0.1 mM; and the liquid pharmaceutical composition containing a combination of lysine and proline contains 3.5 to 4.5 wt% sucrose. 20 to about 70 mg/mL etanercept (including any biosimilar thereof); 10 to 40 mM buffer system, wherein the buffer system is a phosphate buffer system and/or a citrate buffer system; 20 to 150 mM sodium chloride; 0.5 to 5 wt% sucrose; and either aspartic acid or a combination of lysine and proline; the liquid pharmaceutical composition has a pH between pH 6.1 and 6.5; the liquid pharmaceutical composition is either free of arginine or comprises arginine in a concentration of at most 0.1 mM; the liquid pharmaceutical composition is either free of sulphur-containing amino acid(s) or comprises sulphur-containing amino acid(s) in a concentration of at most 0.1 mM; the liquid pharmaceutical is either free of nitrogen-containing chelating agent(s) or comprises nitrogen-containing chelating agent(s) in a concentration of at most 0.1 mM; and the liquid pharmaceutical composition containing a combination of lysine and proline contains 3.5 to 4.5 wt% sucrose.
A door stop comprising: a mounting member dimensioned to engage with a side or top portion of a door , wherein the mounting member is u-shaped; a stopping member for stopping the door ; a biasing means for selectively controlling the stopping member between a non-stopping position and a stopping position; wherein the biasing means automatically actuates the stopping member to the stopping position in response to the door being opened; and an arm located on the stopping member and configured to facilitate repositioning of the stopping member between a stopping position and a non-stopping position from an opposite side of the door on which the stopping member is located, wherein the arm is a hinged arm; wherein the mounting member comprises a hole for accommodating the arm at least partially there-through. a mounting member dimensioned to engage with a side or top portion of a door , wherein the mounting member is u-shaped; a stopping member for stopping the door ; a biasing means for selectively controlling the stopping member between a non-stopping position and a stopping position; wherein the biasing means automatically actuates the stopping member to the stopping position in response to the door being opened; and an arm located on the stopping member and configured to facilitate repositioning of the stopping member between a stopping position and a non-stopping position from an opposite side of the door on which the stopping member is located, wherein the arm is a hinged arm; wherein the mounting member comprises a hole for accommodating the arm at least partially there-through.
A display assembly , comprising: a display screen , comprising a bottom face and a display face , the display screen defining a light transmitting hole in the display screen and at least penetrating through the bottom face ; and a positioning member , located at a periphery of the light transmitting hole , and configured to limit a movement of a functional device received in the light transmitting hole in a direction parallel to the bottom face ; the display assembly being characterized in that , the positioning member is positioned on the bottom face , the positioning member is formed in a ring shape, disposed around the light transmitting hole , and defines an annular through hole, and the diameter of the annular through hole is equal to or larger than the diameter of the light transmitting hole . a display screen , comprising a bottom face and a display face , the display screen defining a light transmitting hole in the display screen and at least penetrating through the bottom face ; and a positioning member , located at a periphery of the light transmitting hole , and configured to limit a movement of a functional device received in the light transmitting hole in a direction parallel to the bottom face ; the display assembly being characterized in that , the positioning member is positioned on the bottom face , the positioning member is formed in a ring shape, disposed around the light transmitting hole , and defines an annular through hole, and the diameter of the annular through hole is equal to or larger than the diameter of the light transmitting hole .
A penile prosthesis implantable into a corpus cavernosum of a penis, the penile prosthesis comprising: an energy assembly contained within the penile prosthesis, the energy assembly comprising a heating element and a liquid phase change material (PCM) sealed within an expansion element , with the liquid PCM exposed to the heating element; and a distal portion coupled with the energy assembly (404with the distal portion containing a liquid ; wherein the heating element is adapted to heat the liquid PCM to a gaseous state that expands to move the expansion element in a distal direction, thus increasing a pressure in the liquid in the distal portion thus providing the penile prosthesis with erection; characterized in that the expansion element is a piston , and further comprises a lock-out adapted to retain the piston at an expanded distal position to maintain the erection as the gaseous state returns to the liquid state. an energy assembly contained within the penile prosthesis, the energy assembly comprising a heating element and a liquid phase change material (PCM) sealed within an expansion element , with the liquid PCM exposed to the heating element; and a distal portion coupled with the energy assembly (404with the distal portion containing a liquid ; wherein the heating element is adapted to heat the liquid PCM to a gaseous state that expands to move the expansion element in a distal direction, thus increasing a pressure in the liquid in the distal portion thus providing the penile prosthesis with erection; characterized in that the expansion element is a piston , and further comprises a lock-out adapted to retain the piston at an expanded distal position to maintain the erection as the gaseous state returns to the liquid state.
An apparatus , comprising: a rename block configured to: receive a first load operation that specifies a plurality of data destination register operands and perform renaming on the first load operation; a scheduling block configured to: receive the renamed first load operation as two individual memory operations from the rename block, store the renamed first load operation in a single entry of a plurality of scheduling block entries , and schedule the renamed first load operation as a single operation with a plurality of data destination register operands; and a memory operation block configured to: receive the scheduled renamed first load operation and atomically perform the first load operation across the plurality of data destination register operands, wherein the rename block is configured to perform renaming on the first load operation by treating each data register operand of the plurality of data register operands as an individual memory operation. a rename block configured to: receive a first load operation that specifies a plurality of data destination register operands and perform renaming on the first load operation; a scheduling block configured to: receive the renamed first load operation as two individual memory operations from the rename block, store the renamed first load operation in a single entry of a plurality of scheduling block entries , and schedule the renamed first load operation as a single operation with a plurality of data destination register operands; and a memory operation block configured to: receive the scheduled renamed first load operation and atomically perform the first load operation across the plurality of data destination register operands,