mhurhangee/patent-ind-claim-en huggingface dataset:
A positive ignition engine comprising an exhaust system for the positive ignition engine, which system comprising a filter for filtering particulate matter (PM) from exhaust gas emitted from the positive ignition engine, which filter comprising a porous substrate which is a ceramic wallflow filter having inlet surfaces and outlet surfaces, wherein the inlet surfaces are separated from the outlet surfaces by a porous structure containing pores of a first mean pore size of from 8 to 45μm, wherein the porous substrate is coated only on the outlet surfaces with a catalytic three-way catalyst surface washcoat layer comprising a plurality of solid particles, wherein the washcoat layer substantially covers surface pores of the porous structure, wherein the porous structure of the washcoated porous substrate contains pores of a second mean pore size, wherein the pores of the washcoated porous substrate are defined in part by spaces between the solid particles (interparticle pores) in the washcoat, wherein the second mean pore size is less than the first mean pore size, wherein an average interparticle pore size of the porous washcoat is from 5nm to 5μm, and wherein the three-way catalyst comprises platinum and rhodium; palladium and rhodium; platinum, palladium and rhodium; or palladium only as active components supported on a high surface area oxide, and an oxygen storage component. wherein the inlet surfaces are separated from the outlet surfaces by a porous structure containing pores of a first mean pore size of from 8 to 45μm, wherein the porous substrate is coated only on the outlet surfaces with a catalytic three-way catalyst surface washcoat layer comprising a plurality of solid particles, wherein the washcoat layer substantially covers surface pores of the porous structure, wherein the porous structure of the washcoated porous substrate contains pores of a second mean pore size, wherein the pores of the washcoated porous substrate are defined in part by spaces between the solid particles (interparticle pores) in the washcoat, wherein the second mean pore size is less than the first mean pore size, wherein an average interparticle pore size of the porous washcoat is from 5nm to 5μm, and wherein the three-way catalyst comprises platinum and rhodium; palladium and rhodium; platinum, palladium and rhodium; or palladium only as active components supported on a high surface area oxide, and an oxygen storage component.
An expression vector for expressing a tyrosinase (Tyr1) to be presented on the surface of a bacterial cell, said expression vector comprising an expression cassette encoding a tyrosinase (Tyr1) as a passenger in a Type V secretion β-autotransporter system, wherein said tyrosinase (Tyr1) when expressed comprises an amino acid sequence of SEQ ID NO:1.
A cutting apparatus comprising: a support surface in use supporting a sheet material; a cutter head having a first cutting blade coming into contact with the sheet material on the support surface from a side farther from the support surface and a second cutting blade coming into contact with the sheet material from a side nearer to the support surface ; and a cutter head drive mechanism driving the cutter head within a plane parallel to the support surface , with the cutter head having a second cutting blade drive portion driving the second cutting blade at the time of notching the sheet material to an accommodation position above the position at the time of cutting the sheet material, wherein the first cutting blade is a rotary blade; and wherein the second cutting blade is a fixed blade arranged such that at the time of cutting the sheet material, a distal end thereof is directed in the driving direction of the cutter head , and that a side edge portion thereof is in contact with a peripheral edge portion of the rotary blade , characterized in that the cutting apparatus is configured such that in use, when, at the time of cutting the sheet material, a predetermined resistance force is exerted on the second cutting blade from the sheet material, the second cutting blade drive portion drives the second cutting blade to the accommodation position. a support surface in use supporting a sheet material; a cutter head having a first cutting blade coming into contact with the sheet material on the support surface from a side farther from the support surface and a second cutting blade coming into contact with the sheet material from a side nearer to the support surface ; and a cutter head drive mechanism driving the cutter head within a plane parallel to the support surface , with the cutter head having a second cutting blade drive portion driving the second cutting blade at the time of notching the sheet material to an accommodation position above the position at the time of cutting the sheet material, wherein the first cutting blade is a rotary blade; and wherein the second cutting blade is a fixed blade arranged such that at the time of cutting the sheet material, a distal end thereof is directed in the driving direction of the cutter head , and that a side edge portion thereof is in contact with a peripheral edge portion of the rotary blade , characterized in that the cutting apparatus is configured such that in use, when, at the time of cutting the sheet material, a predetermined resistance force is exerted on the second cutting blade from the sheet material, the second cutting blade drive portion drives the second cutting blade to the accommodation position.
An image generation method, comprising: acquiring (S801) N single-band spectrum images corresponding to N photosensitive bands of a first scene by using a first camera ; acquiring (S802) M color image frames of a second scene by using a second camera , each color image frame having a different exposure amount, wherein both the color image frames and the spectrum images comprise a same target object, and a quantity of photosensitive bands of the first camera is greater than a quantity of photosensitive bands of the second camera; generating (S803), based on the M color image frames using a reconstruction model , M×N reconstructed spectrum images of the N photosensitive bands, wherein M is an integer greater than 1 and N is an integer greater than 3; correcting (S804) a color cast of the MxN reconstructed spectrum images, based on the N spectrum images, to acquire MxN corrected reconstructed spectrum images; and fusing (S805), for each of the N photosensitive bands, corrected reconstructed spectrum images of a same photosensitive band in the M×N corrected reconstructed spectrum images, to acquire N fused spectrum images; and generating (S806) a corrected color image based on the N fused spectrum images. acquiring (S801) N single-band spectrum images corresponding to N photosensitive bands of a first scene by using a first camera ; acquiring (S802) M color image frames of a second scene by using a second camera , each color image frame having a different exposure amount, wherein both the color image frames and the spectrum images comprise a same target object, and a quantity of photosensitive bands of the first camera is greater than a quantity of photosensitive bands of the second camera; generating (S803), based on the M color image frames using a reconstruction model , M×N reconstructed spectrum images of the N photosensitive bands, wherein M is an integer greater than 1 and N is an integer greater than 3; correcting (S804) a color cast of the MxN reconstructed spectrum images, based on the N spectrum images, to acquire MxN corrected reconstructed spectrum images; and fusing (S805), for each of the N photosensitive bands, corrected reconstructed spectrum images of a same photosensitive band in the M×N corrected reconstructed spectrum images, to acquire N fused spectrum images; and generating (S806) a corrected color image based on the N fused spectrum images.
A method of a robotic cleaning device of controlling operation of a cleaning program in progress, comprising: receiving (S101) an instruction to pause the cleaning program in progress; and travelling (S102), in response to said instruction to pause, to a charging station to recharge a robotic cleaning device battery ; characterised by receiving (S103) a further instruction from a user to resume the cleaning program that was in progress upon receiving the instruction to pause; and resuming (S104), in response to said further instruction, the cleaning program that was in progress upon receiving the instruction to pause. receiving (S101) an instruction to pause the cleaning program in progress; and travelling (S102), in response to said instruction to pause, to a charging station to recharge a robotic cleaning device battery ; characterised by receiving (S103) a further instruction from a user to resume the cleaning program that was in progress upon receiving the instruction to pause; and resuming (S104), in response to said further instruction, the cleaning program that was in progress upon receiving the instruction to pause.
Camera device for taking at least one image of a scene in front of the camera device , the camera device comprising: a sensor-camera with a main beam path, whereby the sensor-camera comprises a sensor , an IR filter and an objective , whereby the IR filter is arranged between the objective and the sensor , whereby light with a wavelength smaller than a cut-off range passes the IR filter into the sensor and light with a wavelength larger than the cut-off range is reflected by the IR filter and, whereby the main beam path extends from the objective into the sensor , whereby the objective comprises a final optical element , whereby the final optical element is the optical element next to the IR filter , whereby the IR filter is tilted by a tilting angle, so that most of the reflected light or all of the reflected light is guided away from the final optical element , whereby the camera device comprises a digital image processing unit , whereby the digital image processing unit applies an image position-dependent variable gain to the red color to the image , characterized in that the position-dependent variable gain in the red color has a linear gradient in at least one direction of the image taken by the camera device , whereby the linear gradient is monotonous increasing or monotonous decreasing, depending on the absolute value of the tiling angle. a sensor-camera with a main beam path, whereby the sensor-camera comprises a sensor , an IR filter and an objective , whereby the IR filter is arranged between the objective and the sensor , whereby light with a wavelength smaller than a cut-off range passes the IR filter into the sensor and light with a wavelength larger than the cut-off range is reflected by the IR filter and, whereby the main beam path extends from the objective into the sensor , whereby the objective comprises a final optical element , whereby the final optical element is the optical element next to the IR filter , whereby the IR filter is tilted by a tilting angle, so that most of the reflected light or all of the reflected light is guided away from the final optical element , whereby the camera device comprises a digital image processing unit , whereby the digital image processing unit applies an image position-dependent variable gain to the red color to the image , characterized in that the position-dependent variable gain in the red color has a linear gradient in at least one direction of the image taken by the camera device , whereby the linear gradient is monotonous increasing or monotonous decreasing, depending on the absolute value of the tiling angle.
A polypeptide that inhibits cell necrosis, wherein the amino acid sequence of the polypeptide is selected from a group consisting of: SEQ ID NOs: 2 - 5, wherein said polypeptide does not bind to TNFR1 but competes with TNF for binding to a cell necrosis-promoting antibody.
Part of a motor vehicle from plastic molding, comprising an attachment barrel to an equipment in which the equipment is an optical block and the part is a housing for optical block to a tailgate or front face of a motor vehicle, characterized in that the attachment barrel has an axis oriented according to the part release direction , and the attachment barrel is steerable so as to orient its axis in a direction different from the part release direction .
An ink cartridge , wherein the ink cartridge is detachably installed in an installation structure of a printing device, and the ink cartridge comprises a housing and a buckle , wherein the buckle is disposed on the housing, the buckle is adapted to be clamped with a force application component (31; 32) of the printing device to fix the ink cartridge in the installation structure, and the buckle is adapted to be separated from the force application component, to unfix the ink cartridge from the printing device, characterized in that , the buckle is adapted to perform reciprocating movement along the horizontal direction, wherein the ink cartridge further comprises a first elastic component (26; 41) connected to the housing and to the buckle; the buckle comprises an engagement portion ; the engagement portion is located between the first elastic component and the force application component; and when the force application component is subject to an acting force toward the first elastic component that is applied by a user, the buckle is adapted to be driven by the force application component to move in a direction toward the first elastic component.
An expression construct comprising: (i) a DNA sequence which encodes at least one guide RNA (gRNA) operatively linked to a first promoter sequence so as to allow expression of said gRNA in a target cell; and (ii) a barcode sequence for identification of said at least one gRNA, said barcode sequence being operatively linked to a second promoter sequence so as to allow expression of said barcode sequence in said target cell. (i) a DNA sequence which encodes at least one guide RNA (gRNA) operatively linked to a first promoter sequence so as to allow expression of said gRNA in a target cell; and (ii) a barcode sequence for identification of said at least one gRNA, said barcode sequence being operatively linked to a second promoter sequence so as to allow expression of said barcode sequence in said target cell.
A merchandise display system comprising: a divider configured to be secured to a support structure, wherein the divider includes a forward end and a rearward end ; the divider includes a divider wall and a divider floor , the divider wall extending upwardly from the divider floor ; a pusher mechanism comprising a biasing device and configured to slide along the divider floor to move a product toward the forward end ; a barrier configured to be positioned proximate the forward end of the divider such that the product positioned on a top surface of the divider floor contacts the barrier when the product moves toward the forward end of the divider ; a low product indicator device comprising a side wall , a front wall , and a bottom wall ; wherein the biasing device comprises a coiled spring; and characterized in that the coiled spring passes over the bottom wall of the low product indicator device and below the front wall of the low product indicator device . a divider configured to be secured to a support structure, wherein the divider includes a forward end and a rearward end ; the divider includes a divider wall and a divider floor , the divider wall extending upwardly from the divider floor ; a pusher mechanism comprising a biasing device and configured to slide along the divider floor to move a product toward the forward end ; a barrier configured to be positioned proximate the forward end of the divider such that the product positioned on a top surface of the divider floor contacts the barrier when the product moves toward the forward end of the divider ; a low product indicator device comprising a side wall , a front wall , and a bottom wall ; wherein the biasing device comprises a coiled spring; and characterized in that the coiled spring passes over the bottom wall of the low product indicator device and below the front wall of the low product indicator device .
A submerged combustion burner comprising a parallelepipedic body , the melt oriented face of which comprises a longitudinal slot , two opposite walls of the slot (9',9") comprising a series of nozzles each supplied separately with fuel and with oxygen containing gas.
Electronic timepiece movement equipped with at least one motor including a stator and a permanent magnet rotor located in a stator hole , said stator defining at least two magnetic poles (12, 14; 56, 57, 58) respectively including at least two pole shoes (16, 18; 60, 61, 62) extending at the periphery of said hole, said at least two pole shoes being connected to each other by at least one continuous isthmus , the motor including at least one coil respectively mounted around at least one core , characterized in that said at least two pole shoes and said at least one core form together a first part made of ferromagnetic material , said first part being formed by or including at least one single-piece wafer forming both said at least two pole shoes and said at least one core, and in that an end portion of each coil core is connected to at least one corresponding pole shoe by a second part , defining a base plate or a main plate made of magnetic material, to which said first part is secured and on which elements of said electronic timepiece movement are at least partially mounted.
A method of manufacturing variable crimped web material, comprising: feeding substantially continuous web material ; crimping a first region of the web material at a first crimp value; and crimping a second region of the web material, adjacent the first region, at a second crimp value; wherein, the web material is crimped using a set of two rollers , each roller being corrugated across at least a portion of its width and corrugated around its circumference, the rollers being configured such that the corrugations across the width of the rollers interleave with each other to crimp the web material, and the rollers being configured such that the troughs of the corrugations around the circumference of the first roller are substantially aligned with the troughs of the corrugations around the circumference of the second roller to crimp the web material at the first crimp value, and the peaks of the corrugations around the circumference of the first roller are substantially aligned with the peaks of the corrugations around the circumference of the second roller to crimp the web material at the second crimp value. feeding substantially continuous web material ; crimping a first region of the web material at a first crimp value; and crimping a second region of the web material, adjacent the first region, at a second crimp value; wherein, the web material is crimped using a set of two rollers , each roller being corrugated across at least a portion of its width and corrugated around its circumference, the rollers being configured such that the corrugations across the width of the rollers interleave with each other to crimp the web material, and the rollers being configured such that the troughs of the corrugations around the circumference of the first roller are substantially aligned with the troughs of the corrugations around the circumference of the second roller to crimp the web material at the first crimp value, and the peaks of the corrugations around the circumference of the first roller are substantially aligned with the peaks of the corrugations around the circumference of the second roller to crimp the web material at the second crimp value.
Multiple layer tool for producing a tubular melt strand of thermoplastic plastics consisting of several layers, comprising an inner tool and an outer tool surrounding the inner tool , between which a melt channel with an annular outlet opening is formed, wherein the inner tool has at least one feed opening for the supply of melt and channels for the transfer of the melt from the feed opening into the melt channel , characterised in that the inner tool comprises a pre-distribution portion and a distribution portion , wherein • the predistribution portion has at least one predistribution plate which is formed in the region of its periphery with at least one feed opening which opens into distribution channels via first connecting channels extending within the predistribution plate , which are formed in the region of an end face of the predistribution plate and lead from there via second connecting channels extending within the predistribution plate into third connecting channels which are formed in the region of the opposite end face of the predistribution plate and from there communicate with risers extending through the predistribution plate , and • the distribution portion has a module plate for feeding each layer of the melt strand into the melt channel , and neighbouring module plates are arranged directly adjacent to one another, wherein each module plate comprises portions of the risers which continue one another and is formed with feed channels , which communicate with at least one riser and, starting from the riser , open through the module plate into spiral channels , which are formed in the region of an end face of the module plate and communicate with the melt channel . • the predistribution portion has at least one predistribution plate which is formed in the region of its periphery with at least one feed opening which opens into distribution channels via first connecting channels extending within the predistribution plate , which are formed in the region of an end face of the predistribution plate and lead from there via second connecting channels extending within the predistribution plate into third connecting channels which are formed in the region of the opposite end face of the predistribution plate and from there communicate with risers extending through the predistribution plate , and • the distribution portion has a module plate for feeding each layer of the melt strand into the melt channel , and neighbouring module plates are arranged directly adjacent to one another, wherein each module plate comprises portions of the risers which continue one another and is formed with feed channels , which communicate with at least one riser and, starting from the riser , open through the module plate into spiral channels , which are formed in the region of an end face of the module plate and communicate with the melt channel .