mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging system configured to detect lung sliding, comprising: an ultrasound probe having a lens surface; and a processor configured to perform the following steps: select a first sub-region in a first ultrasound image and a second sub-region in a second ultrasound image, the first and second ultrasound images comprising image data representing a pleural line , and the first and second sub-regions comprising image data representing only tissue in the subject that is closer to the lens surface than the pleural line within the first and second ultrasound images; estimate an effect of extracorporeal motion in a subject by comparing relative alignment between the first and second sub-regions; and determine whether to suspend imaging of lung sliding in said subject based on a magnitude of the effect of extracorporeal motion. an ultrasound probe having a lens surface; and a processor configured to perform the following steps: select a first sub-region in a first ultrasound image and a second sub-region in a second ultrasound image, the first and second ultrasound images comprising image data representing a pleural line , and the first and second sub-regions comprising image data representing only tissue in the subject that is closer to the lens surface than the pleural line within the first and second ultrasound images; estimate an effect of extracorporeal motion in a subject by comparing relative alignment between the first and second sub-regions; and determine whether to suspend imaging of lung sliding in said subject based on a magnitude of the effect of extracorporeal motion. select a first sub-region in a first ultrasound image and a second sub-region in a second ultrasound image, the first and second ultrasound images comprising image data representing a pleural line , and the first and second sub-regions comprising image data representing only tissue in the subject that is closer to the lens surface than the pleural line within the first and second ultrasound images; estimate an effect of extracorporeal motion in a subject by comparing relative alignment between the first and second sub-regions; and determine whether to suspend imaging of lung sliding in said subject based on a magnitude of the effect of extracorporeal motion.
A composition comprising at least one or more stereoisomers of a compound represented by the following Formula : (wherein R 1 to R 18 are each independently selected from the group consisting of a hydrogen atom, an alkyl group and an alkoxy group) wherein, in a gas chromatogram obtained by analyzing the composition by gas chromatography under the following analysis conditions, the ratio of the area of the maximum peak with respect to the total area of peaks derived from the stereoisomers is 60% or more, wherein the maximum peak is present within the range of retention time of from 27.6 to 28.0 minutes, and wherein the analysis conditions are as follows: column: HP-1 (manufactured by Agilent Technologies Inc.), length: 60.0 m, inner diameter: 250 μm, film thickness: 0.25 μm; liquid phase: 100% dimethylpolysiloxane; carrier gas: N2; flow velocity: 1.3 mL/min; sample inlet temperature: 140°C; detector temperature: 250°C; sample injection volume: 0.2 μL; and temperature increase conditions: 80°C (3 min), 80 to 150°C (10°C/min), 150 to 250°C (5°C/min), 250°C (20 min). column: HP-1 (manufactured by Agilent Technologies Inc.), length: 60.0 m, inner diameter: 250 μm, film thickness: 0.25 μm; liquid phase: 100% dimethylpolysiloxane; carrier gas: N2; flow velocity: 1.3 mL/min; sample inlet temperature: 140°C; detector temperature: 250°C; sample injection volume: 0.2 μL; and temperature increase conditions: 80°C (3 min), 80 to 150°C (10°C/min), 150 to 250°C (5°C/min), 250°C (20 min).
An interconnect structure for an integrated circuit, the interconnect structure comprising: a first layer of the interconnect structure disposed above a substrate, the first layer comprising a grating of alternating metal lines and first dielectric lines in a first direction; and a second layer of the interconnect structure disposed above the first layer, the second layer comprising a grating of alternating metal lines and second dielectric lines in a second direction, perpendicular to the first direction, wherein each metal line of the grating of the second layer is disposed on a recessed third dielectric line comprising alternating distinct regions of a first dielectric material and a second dielectric material aligned to the alternating metal lines and first dielectric lines of the first layer of the interconnect structure, and wherein each second dielectric line of the grating of the second structure comprises a continuous region of a third dielectric material distinct from the alternating distinct regions of the first dielectric material and the second dielectric material. a first layer of the interconnect structure disposed above a substrate, the first layer comprising a grating of alternating metal lines and first dielectric lines in a first direction; and a second layer of the interconnect structure disposed above the first layer, the second layer comprising a grating of alternating metal lines and second dielectric lines in a second direction, perpendicular to the first direction, wherein each metal line of the grating of the second layer is disposed on a recessed third dielectric line comprising alternating distinct regions of a first dielectric material and a second dielectric material aligned to the alternating metal lines and first dielectric lines of the first layer of the interconnect structure, and wherein each second dielectric line of the grating of the second structure comprises a continuous region of a third dielectric material distinct from the alternating distinct regions of the first dielectric material and the second dielectric material.
Turntable for receiving an assay disc and to control an assay on said assay disc by rotational movement of said turntable, wherein said turntable comprises: one or more heater modules to apply heat to one or more specific parts of said assay disc during rotation; a heater controller to select a required heater and to control the temperature thereof, and an IR transceiver to allow instructions and/or heating parameters to be transferred to the heater controller wirelessly.
Method for increasing the throughput in serial workpiece measurement by a coordinate measuring machine with sufficient measuring accuracy, wherein the coordinate measuring machine is configured to measure a workpiece, the measurement being definable by at least one measurement parameter, the value of which is variable, and wherein the method comprises: a) setting an initial value (a 0 , b 0 , c 0 ) of the at least one measurement parameter; b) measuring a workpiece, a set value of the at least one measurement parameter applying; c) determining a value of at least one predetermined test characteristic based on results of the measurement; d) checking whether the at least one test characteristic satisfies a predetermined iteration criterion, the iteration criterion concerning the obtainment or non-obtainment of acceptable or admissible values of the test characteristic; and if this is the case e) changing, and consequently setting, the value of the measurement parameter or changing, and consequently setting, the value of at least one of the measurement parameters and repeating measures b) to d). a) setting an initial value (a 0 , b 0 , c 0 ) of the at least one measurement parameter; b) measuring a workpiece, a set value of the at least one measurement parameter applying; c) determining a value of at least one predetermined test characteristic based on results of the measurement; d) checking whether the at least one test characteristic satisfies a predetermined iteration criterion, the iteration criterion concerning the obtainment or non-obtainment of acceptable or admissible values of the test characteristic; and if this is the case e) changing, and consequently setting, the value of the measurement parameter or changing, and consequently setting, the value of at least one of the measurement parameters and repeating measures b) to d).
An optical imaging lens assembly with lens components consisting of, in order from an object side to an image side: a first lens component with positive refractive power, a convex object-side refractive surface, and a convex image-side refractive surface; a second lens component with negative refractive power, a convex object-side refractive surface, and a concave image-side refractive surface; a third lens component with positive refractive power and a convex object-side refractive surface; a fourth lens component with positive refractive power and a convex object-side refractive surface; and a fifth lens component with negative refractive power, a convex object-side refractive surface, and a concave image-side refractive surface, wherein the optical imaging lens assembly further comprises an aperture stop located near the first lens component, wherein f 4 is a focal length of the fourth lens component, f 1 is a focal length of the first lens component, and the following relation is satisfied: f 4 / f 1 ≥1.6. a first lens component with positive refractive power, a convex object-side refractive surface, and a convex image-side refractive surface; a second lens component with negative refractive power, a convex object-side refractive surface, and a concave image-side refractive surface; a third lens component with positive refractive power and a convex object-side refractive surface; a fourth lens component with positive refractive power and a convex object-side refractive surface; and a fifth lens component with negative refractive power, a convex object-side refractive surface, and a concave image-side refractive surface, wherein the optical imaging lens assembly further comprises an aperture stop located near the first lens component, wherein f 4 is a focal length of the fourth lens component, f 1 is a focal length of the first lens component, and the following relation is satisfied: f 4 / f 1 ≥1.6.
A seat rail system (S) for a vehicle (V), wherein the seat rail system (S) comprises an upper rail and a stationary lower rail attachable to a floor structure of the vehicle (V), wherein the upper rail is configured for being attached to a vehicle seat and movably arranged in relation to the lower rail in a longitudinal vehicle direction (D LO ), wherein the seat rail system (S) further comprises an elongated load member attached to the lower rail , characterized in that the load member is extending through the floor structure , wherein the upper rail comprises a front rail structure and a rear rail structure , wherein the load member is extending into a lower portion of the front rail structure and into a lower portion of the rear rail structure .
Electrical connection assembly, comprising at least one electrical conductor and at least one magnetic core for a current measurement sensor , in which the electrical conductor extends through the magnetic core such that the magnetic core channels, in its at least one air gap, magnetic fields generated by a current circulating in the electrical conductor , the magnetic core comprising at least one ferromagnetic part (50A1, 50B1), the at least one ferromagnetic part (50A1, 50B1) comprising at least one concave portion , extending on a longitudinal plane (α) and at least partly delimiting an air gap ; said air gap being able to receive a sensitive element of a measurement sensor , and the concave portion delimiting an internal space , able to receive an electrical conductor ; the magnetic core having a longitudinal section of elliptical form, and the electrical connection assembly being characterized in that the inner edge of the magnetic core has a longitudinal section of elliptical form, said ellipse being the smallest ellipse circumscribed on the form of the electrical conductor with a minimal distance (d3) between the form of the electrical conductor and said inner edge , wherein said minimal distance (d3) is determined as a function of the half great axis (a) of said ellipse, of the half small axis (b) of said ellipse, of the angle (θ) between the great axis of the ellipse and a straight line passing through the centre of the ellipse, and of the greatest distance (ρ L , (θ)) of the longitudinal section of the electrical conductor from the centre of the ellipse.
A vehicle comprising: a pair of first suspension arms ; a pair of second suspension arms connected to the pair of first suspension arms via a pair of joints ; a pair of forks provided so as to allow turning about a steering axis with respect to the pair of second suspension arms ; a pair of front wheels arranged on the pair of forks ; a vehicle body to which the pair of front wheels are provided; a leaning part for leaning the vehicle body ; and a steering device , wherein the tread width (a, b) increases as the vehicle body is leaned by the leaning part; characterized by a pair of attenuation devices that connect the pair of first suspension arms and the pair of second suspension arms ; wherein, when the steering device is operated for turning operation, the vehicle is configured to increase the tread width (a, b) by turning one of the second suspension arms away from the vehicle body about a turning axis provided by one of the pair of joints in an attenuated manner. a pair of first suspension arms ; a pair of second suspension arms connected to the pair of first suspension arms via a pair of joints ; a pair of forks provided so as to allow turning about a steering axis with respect to the pair of second suspension arms ; a pair of front wheels arranged on the pair of forks ; a vehicle body to which the pair of front wheels are provided; a leaning part for leaning the vehicle body ; and a steering device , wherein the tread width (a, b) increases as the vehicle body is leaned by the leaning part; characterized by a pair of attenuation devices that connect the pair of first suspension arms and the pair of second suspension arms ; wherein, when the steering device is operated for turning operation, the vehicle is configured to increase the tread width (a, b) by turning one of the second suspension arms away from the vehicle body about a turning axis provided by one of the pair of joints in an attenuated manner.
Writing instrument comprising a casing extending in a longitudinal direction (L) and having a radial direction (R), the writing instrument comprising a first writing tip and a second writing tip , which tips are concentric, the second writing tip being arranged around the first writing tip , each writing tip being received in the casing and being able to assume a use configuration in which the writing tip projects from the casing , the casing comprising, at a longitudinal end, a nose that is deformable at least in the radial direction (R), the deformable nose comprising at least one slot extending in the longitudinal direction (L), the writing instrument being characterized in that the deformable nose is not deformed when only the first writing tip is in the use configuration and the deformable nose is deformed when the second writing tip is in the use configuration and the deformable nose comprises an exit opening for the first and second writing tips , the diameter (D16) of the exit opening being greater than the diameter (D20) of the first writing point and less than the diameter (D22) of the second writing tip .
A manufacturing system , comprising: a plurality of lamination heads ; a head-moving system defining a continuous loop lamination path and configured to move the lamination heads in series along the lamination path , wherein the continuous loop lamination path comprises a first side portion and a second side portion interconnected by a first end portion and a second end portion, the end portions and side portions being interconnected by radiused portions; at least one lamination mandrel positioned along a portion of the lamination path and defining a first lamination station ; and the lamination heads each configured to dispense a layup material onto the at least one lamination mandrel or onto layup material previously applied to the lamination mandrel while the lamination heads are moved by the head-moving system through one or more revolutions of the lamination path to lay up a composite laminate . a plurality of lamination heads ; a head-moving system defining a continuous loop lamination path and configured to move the lamination heads in series along the lamination path , wherein the continuous loop lamination path comprises a first side portion and a second side portion interconnected by a first end portion and a second end portion, the end portions and side portions being interconnected by radiused portions; at least one lamination mandrel positioned along a portion of the lamination path and defining a first lamination station ; and the lamination heads each configured to dispense a layup material onto the at least one lamination mandrel or onto layup material previously applied to the lamination mandrel while the lamination heads are moved by the head-moving system through one or more revolutions of the lamination path to lay up a composite laminate .
A semiconductor device (10; 210; 310; 410) comprising: an insulating substrate (22; 42; 26; 46; 122; 126; 226; 326) including an insulating layer (28; 34; 48; 54; 128; 134; 234; 334), a first metal layer and a second metal layer that are provided on both surfaces of the insulating layer; a semiconductor element (20; 40; 220; 320) provided on the first metal layer; and an external connection terminal (14; 15; 16; 18; 19) bonded to the first metal layer, the external connection terminal being electrically insulated from the second metal layer, wherein: the first metal layer (30;36;50;56;130;150;136;156) includes a main portion (36a; 56a; 236a; 336a) being in contact with the insulating layer, the semiconductor element being provided in the main portion, and a protruding portion (36b; 56b; 236b; 336b) protruding from the main portion, the external connection terminal being bonded to the protruding portion; at least a part of the protruding portion is protruding from an outer peripheral edge (34e; 54e) of the insulating layer in a plan view of the insulating substrate; the protruding portion (36b; 56b) is located to be spaced apart from the outer peripheral edge (34e; 54e) of the insulating layer (34; 54); characterised in that , there is a space distance (CL) between the protruding portion (36b; 56b) and the insulating layer (34; 54). an insulating substrate (22; 42; 26; 46; 122; 126; 226; 326) including an insulating layer (28; 34; 48; 54; 128; 134; 234; 334), a first metal layer and a second metal layer that are provided on both surfaces of the insulating layer; a semiconductor element (20; 40; 220; 320) provided on the first metal layer; and an external connection terminal (14; 15; 16; 18; 19) bonded to the first metal layer, the external connection terminal being electrically insulated from the second metal layer, the first metal layer (30;36;50;56;130;150;136;156) includes a main portion (36a; 56a; 236a; 336a) being in contact with the insulating layer, the semiconductor element being provided in the main portion, and a protruding portion (36b; 56b; 236b; 336b) protruding from the main portion, the external connection terminal being bonded to the protruding portion; a main portion (36a; 56a; 236a; 336a) being in contact with the insulating layer, the semiconductor element being provided in the main portion, and a protruding portion (36b; 56b; 236b; 336b) protruding from the main portion, the external connection terminal being bonded to the protruding portion; at least a part of the protruding portion is protruding from an outer peripheral edge (34e; 54e) of the insulating layer in a plan view of the insulating substrate; the protruding portion (36b; 56b) is located to be spaced apart from the outer peripheral edge (34e; 54e) of the insulating layer (34; 54); characterised in that , there is a space distance (CL) between the protruding portion (36b; 56b) and the insulating layer (34; 54).
Motor vehicle interior vent intended to deliver a flow of air in the direction of a space to be conditioned, having: • an opening ( O ), through which a flow of air can flow during operation, • a flared guide surface ( S ), extending from the opening ( O ) and flared in the direction of flow of the flow of air, • a needle valve having a needle valve head with: ▪ a tip situated at the end of the needle valve , ▪ a portion of maximum width with a shape corresponding to the opening ( O ), with dimensions of between 80% and 100% of those of the opening ( O ), ▪ a flared base in the direction of flow connecting the needle valve head to an elongate body , the needle valve being movable in translation between two end positions, namely: ▪ a deployed end position in which the widest portion of the needle valve head is downstream of the opening ( O ) in the direction of the space to be conditioned, the flow of air then being laminar and guided by the guide surface (S) in a divergent flow, ▪ a retracted end position, characterized in that in the retracted end position the widest portion of the needle valve head is upstream of the opening ( O ), the flow of air then being laminar and guided by the tip of the needle valve in a convergent flow. • an opening ( O ), through which a flow of air can flow during operation, • a flared guide surface ( S ), extending from the opening ( O ) and flared in the direction of flow of the flow of air, • a needle valve having a needle valve head with: ▪ a tip situated at the end of the needle valve , ▪ a portion of maximum width with a shape corresponding to the opening ( O ), with dimensions of between 80% and 100% of those of the opening ( O ), ▪ a flared base in the direction of flow connecting the needle valve head to an elongate body , ▪ a tip situated at the end of the needle valve , ▪ a portion of maximum width with a shape corresponding to the opening ( O ), with dimensions of between 80% and 100% of those of the opening ( O ), ▪ a flared base in the direction of flow connecting the needle valve head to an elongate body , ▪ a deployed end position in which the widest portion of the needle valve head is downstream of the opening ( O ) in the direction of the space to be conditioned, the flow of air then being laminar and guided by the guide surface (S) in a divergent flow, ▪ a retracted end position,
Elastic bearing or hydraulically damping bearing comprising a core , an outer sleeve tube surrounding the core while forming a gap , and an elastomeric body inserted into the gap and connecting the core and the outer sleeve tube together; the core for calibrating the elastomeric body of the elastic bearing or the hydraulically damping bearing comprising a first core part and a second core part , the second core part being expandable for introducing a preload into the elastomeric body and comprising a receiving opening into which the first core part is insertable, and the second core part having a closed profile, the first core part and/or the second core part having a rectangular contour in cross section, characterized in that the first core part has recesses on its outer surface to facilitate joining and to relieve the corners.