mhurhangee/patent-ind-claim-en huggingface dataset:
A mask assembly comprising: a first upper portion comprising a first wall and a second wall converging to an apex , the apex being positioned in use in proximity to the nose of a user; a lower portion being connected to and positioned below the first upper portion ; a face contacting flange defined at least in part by the first upper portion and the lower portion ; a hinge axis (H) extending laterally across the mask assembly, the first upper portion being positioned vertically higher than the hinge axis (H); a band extending along at least a portion of the first wall and along at least a portion of the second wall , the band comprising a first end and a second end , both ends being spaced away from the hinge axis (H) toward the apex , the band forming a first boundary; a second upper portion positioned distally from the first upper portion in a direction away from the face contacting flange , the second upper portion comprising an arc length defined along an upper extremity of a surface of the second upper portion , the arc length forming a second boundary; an offset between a distal portion of the first upper portion and a proximal portion of the second upper portion , proximal and distal being relative to the face contacting flange; and wherein at least a portion of a first outer surface of the first upper portion is configured to roll so as to overlie or underlie at least a portion of a second outer surface of the second upper portion when the first boundary is moved toward the second boundary. a first upper portion comprising a first wall and a second wall converging to an apex , the apex being positioned in use in proximity to the nose of a user; a lower portion being connected to and positioned below the first upper portion ; a face contacting flange defined at least in part by the first upper portion and the lower portion ; a hinge axis (H) extending laterally across the mask assembly, the first upper portion being positioned vertically higher than the hinge axis (H); a band extending along at least a portion of the first wall and along at least a portion of the second wall , the band comprising a first end and a second end , both ends being spaced away from the hinge axis (H) toward the apex , the band forming a first boundary; a second upper portion positioned distally from the first upper portion in a direction away from the face contacting flange , the second upper portion comprising an arc length defined along an upper extremity of a surface of the second upper portion , the arc length forming a second boundary; an offset between a distal portion of the first upper portion and a proximal portion of the second upper portion , proximal and distal being relative to the face contacting flange; and wherein at least a portion of a first outer surface of the first upper portion is configured to roll so as to overlie or underlie at least a portion of a second outer surface of the second upper portion when the first boundary is moved toward the second boundary.
A display circuit comprising a plurality of pixel units arranged in a matrix, a first gate driving unit and a second gate driving unit ; wherein the first gate driving unit is configured to output a first gate driving signal to a first input of each of the plurality of the pixel units ; the second gate driving unit is configured to output a second gate driving signal to a second input of each of the plurality of the pixel units ; characterized in that the first gate driving unit comprises at least three GOA stage units, wherein each of the GOA stage units comprises a signal input terminal (INPUT), an output terminal (OUT), a reset terminal (RESET) and a second output terminal (COUT); the signal input terminal (INPUT) of the first GOA stage unit (S/R2-0) is adapted to have input thereto a first frame start signal (STV1), and a reset terminal thereof is connected to the second output terminal (COUT) of the third GOA stage unit (S/R2-1); the signal input terminal (INPUT) of the second GOA stage unit (S/R1-1) is adapted to have input thereto a second frame start signal (STV2), and the reset terminal (RESET) thereof is connected to the second output terminal (COUT) of the first GOA stage unit; wherein the second output terminal (COUT) of the first GOA stage unit (S/R2-0) is connected to the reset terminal (RESET) of the second GOA stage unit (S/R1-1) and the signal input terminal (INPUT) of the third GOA stage unit (S/R2-1); the output terminal (OUT) of the second GOA stage unit (S/R1-1) and the output terminal of the third GOA stage unit are adapted to output the first gate driving signal (Gate ) to a pixel unit in a first row through a logic OR unit; and the second output (COUT) terminal of a (2n+1)-th GOA stage unit (S/R2-1, S/R2-n) is connected to the reset input terminal (RESET) of the (2n-1)-th GOA stage unit (S/R2-0, S/R2-n-1), the reset input terminal of the (2n+2)-th GOA stage unit (S/R1-2, S/R1-n+1) and the signal input terminal (INPUT) of the (2n+3)-th GOA stage unit (SR2-2, S/R2-n+1); and the second output (COUT) terminal of the 2n-th GOA stage unit (S/R1-1, S/R1-n) is connected to the input terminal (INPUT) of a (2n+2)-th GOA stage unit (S/R1-2, S/R1-n+1); and wherein the output terminal of the 2n-th GOA stage unit and the output terminal of the (2n+1)-th GOA stage unit are adapted to output the first gate driving signal to a pixel unit in a n-th row through a n-th logic-OR unit, where n is a positive integer greater than or equal to 2.
Skylight window with a blind frame and a sash frame , which is pivotably mounted on the blind frame about at least one axis of rotation by means of at least one extension arm , wherein a support arm engages on the extension arm on the one hand and is mounted on the blind frame on the other hand, wherein the support arm is articulated on a carriage which is guided linearly on the extension arm and which can be moved in a displacement direction to move the sash frame with respect to the blind frame by means of an electric drive arranged on the sash frame , wherein the carriage comprises a first carriage part coupled to the drive and a second carriage part coupled to the support arm , which are form-fittingly coupled to one another for drivable coupling of the sash frame to the drive in a first position of a latching element , which can be moved between the first position and a second position by means of an operating lever , and are decoupled from one another in the second position of the latching element for releasing the sash frame .
Method for scanning the surface (O) of metallic workpieces (W), wherein, during a scanning process before a welding process is carried out, a welding torch with a meltable welding wire is moved over the surface (O) of the workpieces (W) using a manipulator along a predefined path (x A ) and at a specified speed (v A ), and at predefined times (t i ) the welding wire is moved towards the surface (O) of the workpieces (W) at a first forward speed (v SV ) until a contact of the welding wire with one of the workpieces (W) is detected by a welding power source , and the welding wire is then moved away from the workpieces (W) again at a first reverse speed (v SR ), and the position (P i ) of the surface (O) of the workpieces (W) at each time (t i ) is determined and stored in the welding power source , wherein an edge (K) is determined if the current position (P i ) of the surface (O) of the workpieces (W) exceeds at least one of the stored previous positions (P i-n ) of the surface (O) of the workpieces (W) by a predefined threshold value (S), wherein if an edge (K) is determined, an edge detection parameter (KP) is set and output together with the current position value (Pi) and transferred to the manipulator , characterized in that the end of the edge (K) is determined if the current position (P i ) of the surface (O) of the workpieces (W) remains the same with respect to at least one of the stored previous positions (P i-n ).
Method for initializing a motor vehicle , wherein the motor vehicle comprises an arrangement having a rolling chassis and a vehicle body arranged on the rolling chassis , comprising the following steps: receiving first specification signals which represent a first specification of the rolling chassis , wherein the first specification indicates which components and/or which functionalities can be provided solely by means of the rolling chassis , wherein the first specification furthermore indicates parameters for parameterizing the indicated components and/or functionalities of the rolling chassis , receiving second specification signals which represent a second specification of the vehicle body , wherein the second specification indicates which components and/or which functionalities can be provided solely by means of the vehicle body , wherein the second specification furthermore indicates parameters for parameterizing the indicated components and/or functionalities of the vehicle body , determining on the basis of the first and second specification which of the components and/or which of the functionalities of the rolling chassis and of the vehicle body can be provided by means of the arrangement consisting of rolling chassis and vehicle body , generating initialization signals, which represent initialization data for initializing the motor vehicle , on the basis of the first and second specification, and outputting the generated initialization signals in order to initialize the motor vehicle . receiving first specification signals which represent a first specification of the rolling chassis , wherein the first specification indicates which components and/or which functionalities can be provided solely by means of the rolling chassis , wherein the first specification furthermore indicates parameters for parameterizing the indicated components and/or functionalities of the rolling chassis , receiving second specification signals which represent a second specification of the vehicle body , wherein the second specification indicates which components and/or which functionalities can be provided solely by means of the vehicle body , wherein the second specification furthermore indicates parameters for parameterizing the indicated components and/or functionalities of the vehicle body , determining on the basis of the first and second specification which of the components and/or which of the functionalities of the rolling chassis and of the vehicle body can be provided by means of the arrangement consisting of rolling chassis and vehicle body , generating initialization signals, which represent initialization data for initializing the motor vehicle , on the basis of the first and second specification, and outputting the generated initialization signals in order to initialize the motor vehicle .
A toothbrush head connected or connectable to a toothbrush grip handle to define a head-handle longitudinal direction (L-L) and a widthways direction (W-W) perpendicular to the longitudinal direction (L-L), the head having a bristle surface with a distal end further from the handle and a proximal end closer to the handle , and having widthways opposite sides , tufts of bristles extending from the bristle surface in a bristle direction (B) transverse to the longitudinal direction (L-L) and to the width direction (W-W), characterised in that the tufts of bristles comprise: first tufts each comprising a mixture of co-extruded bristles and unitary bristles , and located as a cluster of first tufts adjacent to the distal end of the bristle surface ; second tufts each comprising a mixture of co-extruded bristles and unitary bristles , and located as a cluster of second tufts adjacent to the proximal end of the bristle surface ; third tufts each comprising tapered bristles located adjacent to the widthways opposite sides of the bristle surface ; fourth tufts each comprising a mixture of co-extruded bristles and tapered bristles (51 - Figure 1, 2, 3; 80 - Figure 6) longer than the co-extruded bristles and located as a cluster of fourth tufts widthways between the third tufts and longitudinally between the first and second tufts . first tufts each comprising a mixture of co-extruded bristles and unitary bristles , and located as a cluster of first tufts adjacent to the distal end of the bristle surface ; second tufts each comprising a mixture of co-extruded bristles and unitary bristles , and located as a cluster of second tufts adjacent to the proximal end of the bristle surface ; third tufts each comprising tapered bristles located adjacent to the widthways opposite sides of the bristle surface ; fourth tufts each comprising a mixture of co-extruded bristles and tapered bristles (51 - Figure 1, 2, 3; 80 - Figure 6) longer than the co-extruded bristles and located as a cluster of fourth tufts widthways between the third tufts and longitudinally between the first and second tufts .
A method of identifying a feline subject with an increased likelihood of developing calcium oxalate stones, the method comprising: analyzing a biological sample obtained from the feline subject for the presence of one or two copies of minor allele A of SNP A1_212891692, felCat8; and wherein the presence of one or two copies of minor allele A of SNP A1_212891692 indicates that the feline subject has an increased likelihood of developing calcium oxalate stones. analyzing a biological sample obtained from the feline subject for the presence of one or two copies of minor allele A of SNP A1_212891692, felCat8; and wherein the presence of one or two copies of minor allele A of SNP A1_212891692 indicates that the feline subject has an increased likelihood of developing calcium oxalate stones.
An electrode material, for use in positive and negative electrodes of a lithium secondary battery, comprising a complex of a carbon-based conductive material and an electrode active material including a surface layer comprising metal fluorides and/ or fluorocarbons, wherein said carbon-based conductive material is one that has been subjected to hydrophilic treatment by using a gas containing fluorine gas; and said complex is obtainable by calcining a mixture of said carbon-based conductive material subjected to said hydrophilic treatment and said electrode active material in the presence of a fluororesin.
A printer carriage comprising: a sensor ; and an actuation member coupled to the sensor ; wherein the actuation member is to actuate the sensor when an end of the actuation member is rotated by contact with a printing target ; the actuation member is suspended vertically; and a vertical position of the end of the actuation member is adjustable. a sensor ; and an actuation member coupled to the sensor ; wherein the actuation member is to actuate the sensor when an end of the actuation member is rotated by contact with a printing target ; the actuation member is suspended vertically; and a vertical position of the end of the actuation member is adjustable.
A composite heat pipe , comprising: an elongate conductive casing that defines an internal volume having an outer peripheral region ; a wick structure positioned within the outer peripheral region of the internal volume of the elongate conductive casing ; a working fluid within the internal volume of the outer peripheral region ; one or more fiber reinforced composite layers operatively coupled to one or more external, lateral sides of the elongate conductive casing , wherein each fiber reinforced composite layer comprises a plurality of elongate fibers longitudinally aligned with the elongate conductive casing and operatively coupled together by a binding material ; and a separate adhesive layer between the one or more fiber reinforced composite layers and a respective external, lateral side of the elongate conductive casing . an elongate conductive casing that defines an internal volume having an outer peripheral region ; a wick structure positioned within the outer peripheral region of the internal volume of the elongate conductive casing ; a working fluid within the internal volume of the outer peripheral region ; one or more fiber reinforced composite layers operatively coupled to one or more external, lateral sides of the elongate conductive casing , wherein each fiber reinforced composite layer comprises a plurality of elongate fibers longitudinally aligned with the elongate conductive casing and operatively coupled together by a binding material ; and a separate adhesive layer between the one or more fiber reinforced composite layers and a respective external, lateral side of the elongate conductive casing .
A folding device, comprising two opposite connecting plates with edges hinged with each other, wherein opposite surfaces of the two connecting plates are both provided with at least one set of protruding teeth to form two toothed rows meshing with each other when the folding device is folded; meshing surfaces of the two toothed rows are oppositely provided with first toothed grooves and second toothed grooves meshing with each other when the folding device is folded; a hinge shaft configured to hinge the edges of the two connecting plates is parallel to the two toothed rows; characterized in that a pull rod penetrating through the protruding teeth of the two toothed rows of the two connecting plates when the folding device is folded is arranged in a direction perpendicular to the protruding teeth of the two toothed rows; an end portion of the pull rod is provided with a locking mechanism; when the two connecting plates are folded together, the first and second toothed grooves on the two toothed rows tightly engage with each other by locking the locking mechanism to tightly fix and connect the two connecting plates; a compression spring compressed between the two toothed rows is sleeved outside the hinge shaft of the two connecting plates. opposite surfaces of the two connecting plates are both provided with at least one set of protruding teeth to form two toothed rows meshing with each other when the folding device is folded; meshing surfaces of the two toothed rows are oppositely provided with first toothed grooves and second toothed grooves meshing with each other when the folding device is folded; a hinge shaft configured to hinge the edges of the two connecting plates is parallel to the two toothed rows; characterized in that a pull rod penetrating through the protruding teeth of the two toothed rows of the two connecting plates when the folding device is folded is arranged in a direction perpendicular to the protruding teeth of the two toothed rows; an end portion of the pull rod is provided with a locking mechanism; when the two connecting plates are folded together, the first and second toothed grooves on the two toothed rows tightly engage with each other by locking the locking mechanism to tightly fix and connect the two connecting plates; a compression spring compressed between the two toothed rows is sleeved outside the hinge shaft of the two connecting plates.
A method for individually assessing the cleanness of one of an upper (2; 102) and a lower (3; 103) bed support in a process column (1; 101), said method comprising the steps of: a) providing a process column (1; 101) comprising an upper (2; 102) and a lower (3; 103) bed support, a column chamber (4;104), an upper outlet (6; 106) and a lower outlet (7; 107); a') unpacking said process column; a") filling said column chamber with a liquid; b) after steps a') and a") conveying liquid through one of the lower and upper bed supports, and; c) measuring a differential pressure over said one of an upper and a lower bed support; wherein said column further comprises a movable adaptor (5; 105) and wherein in step b) one of said upper and lower outlets is closed and the other is open and liquid is conveyed through said one of the lower and upper bed supports by moving said adaptor downwards. a) providing a process column (1; 101) comprising an upper (2; 102) and a lower (3; 103) bed support, a column chamber (4;104), an upper outlet (6; 106) and a lower outlet (7; 107); a') unpacking said process column; a") filling said column chamber with a liquid; b) after steps a') and a") conveying liquid through one of the lower and upper bed supports, and; c) measuring a differential pressure over said one of an upper and a lower bed support;
A savoury concentrate having a water activity (A w ) within the range of 0.15-0.6, said concentrate comprising: a) 40-55 wt.% of fat component, said fat component having a solid fat content at 20°C (N 20 ) of 6-20%; b) 3-30 wt.% of a particulate crystalline component selected from NaCl, KCI, sucrose, monosodium glutamate and combinations thereof, including at least 3% by weight of the composition of crystalline salt selected from NaCl, KCI and combinations thereof; c) 10-50 wt.% of particulate plant material selected from herbs, spices, vegetables and combinations thereof; d) 0-22 wt.% of particulate starch component; e) up to 10 wt.% of water; wherein the combination of components a) to e) constitutes at least 80 wt.% of the savoury concentrate, and wherein the fat component contains: • 4-20 wt.% of high melting triglycerides selected from PPP, POP and PPO wherein P represents palmitic acid and O represents oleic acid; and • 50-94 wt.% of low melting triglycerides selected from UUU, USU and UUS, wherein U represents unsaturated C 16-22 fatty acid and S represents saturated C 10-18 fatty acid. a) 40-55 wt.% of fat component, said fat component having a solid fat content at 20°C (N 20 ) of 6-20%; b) 3-30 wt.% of a particulate crystalline component selected from NaCl, KCI, sucrose, monosodium glutamate and combinations thereof, including at least 3% by weight of the composition of crystalline salt selected from NaCl, KCI and combinations thereof; c) 10-50 wt.% of particulate plant material selected from herbs, spices, vegetables and combinations thereof; d) 0-22 wt.% of particulate starch component; e) up to 10 wt.% of water; wherein the combination of components a) to e) constitutes at least 80 wt.% of the savoury concentrate, and wherein the fat component contains: • 4-20 wt.% of high melting triglycerides selected from PPP, POP and PPO wherein P represents palmitic acid and O represents oleic acid; and • 50-94 wt.% of low melting triglycerides selected from UUU, USU and UUS, wherein U represents unsaturated C 16-22 fatty acid and S represents saturated C 10-18 fatty acid. • 4-20 wt.% of high melting triglycerides selected from PPP, POP and PPO wherein P represents palmitic acid and O represents oleic acid; and • 50-94 wt.% of low melting triglycerides selected from UUU, USU and UUS, wherein U represents unsaturated C 16-22 fatty acid and S represents saturated C 10-18 fatty acid.