mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for creating an animation summarizing a design process of a three-dimensional object, the method comprising the steps of: a) acquiring design data during at least one design session of said three-dimensional object; b) automatically identifying time points (MS1 - MS24) of said session or sessions corresponding to milestones of the design process by applying a set of predetermined rules to the acquired data, and storing data representing statuses of the three-dimensional object at said time points, said set of predetermined rules comprising at least one rule representative of: a number of repetitions of a same action; c) reconstructing and storing data representing intermediate statuses of the three-dimensional object by interpolating said data representing statuses of the three-dimensional object at the automatically identified time points; and d) generating and displaying an animation of the design process from said stored statuses of the three-dimensional object, including displaying a graphical representation of a timeline providing access to data representing statuses of the three-dimensional object corresponding to milestones. a) acquiring design data during at least one design session of said three-dimensional object; b) automatically identifying time points (MS1 - MS24) of said session or sessions corresponding to milestones of the design process by applying a set of predetermined rules to the acquired data, and storing data representing statuses of the three-dimensional object at said time points, said set of predetermined rules comprising at least one rule representative of: a number of repetitions of a same action; c) reconstructing and storing data representing intermediate statuses of the three-dimensional object by interpolating said data representing statuses of the three-dimensional object at the automatically identified time points; and d) generating and displaying an animation of the design process from said stored statuses of the three-dimensional object, including displaying a graphical representation of a timeline providing access to data representing statuses of the three-dimensional object corresponding to milestones.
A fuse board comprising: a metal plate in which a plurality of openings extending from the top surface to the bottom surface are formed; a suspension portion that includes a first rod-like portion and a second rod-like portion extending from two points /11a, 11b) on the edge of each opening, respectively, and a body portion continuously extending from ends of the first rod-like portion and the second rod-like portion and that is formed in a substantial U-shape to be able to vibrate; a fuse portion that is formed from the body portion of the suspension portion to a joint (11a, 11b) to the metal plate to continuously extend from the suspension portion and that includes a bent wiring pattern; a connection portion that is formed continuously from the fuse portion and that is able to be connected to a corresponding cell; and an insulating resin film that has a rectangular sheet-like shape extending from a part of the body portion of the suspension portion to a part of the connection portion to cover one surface of the fuse portion. a metal plate in which a plurality of openings extending from the top surface to the bottom surface are formed; a suspension portion that includes a first rod-like portion and a second rod-like portion extending from two points /11a, 11b) on the edge of each opening, respectively, and a body portion continuously extending from ends of the first rod-like portion and the second rod-like portion and that is formed in a substantial U-shape to be able to vibrate; a fuse portion that is formed from the body portion of the suspension portion to a joint (11a, 11b) to the metal plate to continuously extend from the suspension portion and that includes a bent wiring pattern; a connection portion that is formed continuously from the fuse portion and that is able to be connected to a corresponding cell; and an insulating resin film that has a rectangular sheet-like shape extending from a part of the body portion of the suspension portion to a part of the connection portion to cover one surface of the fuse portion.
A fine paper powder-containing resin molded object made from a thermoplastic resin containing fine paper powder, comprising a non-foam layer formed on a surface and a foam layer (3 a, 3b, 3c) formed in an inner side, wherein the fine paper powder-containing resin molded object contains 1 to 400 parts by weight of the fine paper powder having an average particle diameter ranging from 25 to 200 μm with respect to 100 parts by weight of the thermoplastic resin, and the foam layer is composed of, in the order from a side closer to the surface, a first foam layer containing cells having an average cell diameter ranging from 10 to 100 μm, a second foam layer containing cells having an average cell diameter ranging from 5 to 50 μm, and a third foam layer containing cells having an average cell diameter ranging from 20 to 500 μm.
A liquid sensor having: a) a housing, b) at least one sensor with at least two metal contact surfaces (4, 5) for detecting a liquid, c) a processing unit for processing sensor signals of the at least one sensor, characterized in that a function of the liquid sensor can be controlled by an actuation of at least one of the metal contact surfaces (4, 5), wherein the function of the liquid sensor is an on- and off-switching of the liquid sensor or an activation or deactivation of the at least one sensor. a) a housing, b) at least one sensor with at least two metal contact surfaces (4, 5) for detecting a liquid, c) a processing unit for processing sensor signals of the at least one sensor, characterized in that a function of the liquid sensor can be controlled by an actuation of at least one of the metal contact surfaces (4, 5), wherein the function of the liquid sensor is an on- and off-switching of the liquid sensor or an activation or deactivation of the at least one sensor.
A vehicle imaging device comprising: an outer casing comprising a housing having an opening and a translucent cover closing the opening; and a camera module disposed inside the outer casing, wherein a part of the translucent cover is provided as a transmission window through which image capturing light to be incident on the camera module is transmitted, wherein a fluid flowing part having a flow path of fluid to be blown onto the transmission window is provided, and wherein a backflow prevention mechanism is provided in the fluid flowing part, characterised in that a waterproof packing is disposed between the housing and the translucent cover, a part of the packing is positioned in the flow path and provided as the backflow prevention mechanism, and the backflow prevention mechanism is a valve portion which is elastically deformed according to the pressure of the fluid to open the flow path. an outer casing comprising a housing having an opening and a translucent cover closing the opening; and a camera module disposed inside the outer casing, wherein a part of the translucent cover is provided as a transmission window through which image capturing light to be incident on the camera module is transmitted, wherein a fluid flowing part having a flow path of fluid to be blown onto the transmission window is provided, and wherein a backflow prevention mechanism is provided in the fluid flowing part, characterised in that a waterproof packing is disposed between the housing and the translucent cover, a part of the packing is positioned in the flow path and provided as the backflow prevention mechanism, and the backflow prevention mechanism is a valve portion which is elastically deformed according to the pressure of the fluid to open the flow path.
Buffering device for stacking flat objects (71, 72,...) of paper, cardboard or plastic arriving along a conveying axis (×10) in a depositing position on a deposit, comprising a) a control device for controlling the stacking process; b) a belt conveyor with at least one endless belt driven by belt rollers, by means of which incoming flat objects (71, 72,...) can be transported sequentially in the direction of the deposit position; c) a suction device connected to the belt conveyor, by means of which incoming flat objects (71, 72,...) can be sucked against the at least one endless belt and coupled thereto; d) a blowing device, by means of which an air flow directed towards the deposit can be guided along the side of the at least one endless belt facing the arriving flat objects (71, 72,...); characterised in that the device further comprises e) at least one guide element along which a flat object coupled to the belt conveyor can be guided along a guide axis (×10), preferably up to a stop, into the deposit position; wherein the running axis (×1) of the at least one endless belt is inclined by an angle of inclination (α) with respect to the conveying axis (×10), so that a transverse force (Fα) pointing towards the guide element acts on the transported flat objects (71, 72,...). a) a control device for controlling the stacking process; b) a belt conveyor with at least one endless belt driven by belt rollers, by means of which incoming flat objects (71, 72,...) can be transported sequentially in the direction of the deposit position; c) a suction device connected to the belt conveyor, by means of which incoming flat objects (71, 72,...) can be sucked against the at least one endless belt and coupled thereto; d) a blowing device, by means of which an air flow directed towards the deposit can be guided along the side of the at least one endless belt facing the arriving flat objects (71, 72,...); characterised in that the device further comprises e) at least one guide element along which a flat object coupled to the belt conveyor can be guided along a guide axis (×10), preferably up to a stop, into the deposit position;
An ophthalmic surgical system for measuring intraocular pressure, the system comprising: an illumination probe having a probe tip configured for insertion through an incision in an eye of a patient, the probe tip including a distal end of an optical fiber, wherein the distal end of the optical fiber comprises: a first reflective surface, and a second reflective surface comprising a partially transparent wall forming an exterior surface of the distal end of the optical fiber, the first and second reflective surfaces (414A, 414B) separated by a cavity. an illumination probe having a probe tip configured for insertion through an incision in an eye of a patient, the probe tip including a distal end of an optical fiber, wherein the distal end of the optical fiber comprises: a first reflective surface, and a second reflective surface comprising a partially transparent wall forming an exterior surface of the distal end of the optical fiber, the first and second reflective surfaces (414A, 414B) separated by a cavity.
An imaging device (20; 20A; 40) comprising: an imaging unit to obtain a captured image of a test pattern and a reference mark to locate the test pattern, the test pattern including a pair of first marks (M1a, M1b) and a second mark; and at least one processor including: a position detector configured to detect the reference mark in the captured image and locate the pair of first marks (M1a, M1b) and the second mark in the captured image with reference to the reference mark; and characterized in that the at least one processor includes a ratio calculator configured to calculate one of: a first ratio between a distance between the pair of first marks (M1a, M1b) in the captured image and a deviation of the second mark in the captured image, and a second ratio between the distance between the pair of first marks (M1a, M1b) in the captured image and a distance from one of the pair of first marks (M1a, M1b) to the second mark in the captured image. an imaging unit to obtain a captured image of a test pattern and a reference mark to locate the test pattern, the test pattern including a pair of first marks (M1a, M1b) and a second mark; and at least one processor including: a position detector configured to detect the reference mark in the captured image and locate the pair of first marks (M1a, M1b) and the second mark in the captured image with reference to the reference mark; and characterized in that the at least one processor includes a ratio calculator configured to calculate one of: a first ratio between a distance between the pair of first marks (M1a, M1b) in the captured image and a deviation of the second mark in the captured image, and a second ratio between the distance between the pair of first marks (M1a, M1b) in the captured image and a distance from one of the pair of first marks (M1a, M1b) to the second mark in the captured image. a position detector configured to detect the reference mark in the captured image and locate the pair of first marks (M1a, M1b) and the second mark in the captured image with reference to the reference mark; and characterized in that the at least one processor includes a ratio calculator configured to calculate one of: a first ratio between a distance between the pair of first marks (M1a, M1b) in the captured image and a deviation of the second mark in the captured image, and a second ratio between the distance between the pair of first marks (M1a, M1b) in the captured image and a distance from one of the pair of first marks (M1a, M1b) to the second mark in the captured image. a first ratio between a distance between the pair of first marks (M1a, M1b) in the captured image and a deviation of the second mark in the captured image, and a second ratio between the distance between the pair of first marks (M1a, M1b) in the captured image and a distance from one of the pair of first marks (M1a, M1b) to the second mark in the captured image.
Camera module for use with a burner for a shaft smelting furnace, particularly a copper shaft smelting furnace, wherein the camera module can be arranged at the burner or an observation device of the burner, comprising a housing with a first opening and a second opening, which is arranged axially opposite the first opening and which is closed by a viewing glass, a beam splitter, which is arranged in an optical viewing axis axially extending through the housing between the two openings (104, 105), and a camera, the objective of which is arranged perpendicularly to the viewing axis and aligned with the beam splitter.
A laminated acoustic building panel comprising a first substrate layer, a second substrate layer bonded to the first layer by an adhesive layer, the panel having a damping loss factor of 5 - 30% (η = 0.05 - 0.3), wherein the ratio of the adhesive to the applied surface area of the substrate is 80 - 250 g/m 2; characterised in that the panel has a dynamic Young's modulus of 0.1 to 5 GPa and in that the adhesive has a dynamic Young's modulus (at 20°C) of 0.1 to 50 MPa at 100 Hz and/or 0.5 MPa to 100 MPa at 1000 Hz and a loss factor of at least 50% (η > 0.5).
A method of operation of a draper header of an agricultural harvesting machine including a feed draper and at least one side draper during and after a deslugging or a slug clean out operation of a crop processing mechanism including operating the crop processing mechanism in a reverse direction and a feed direction for movement of crop material in a reverse direction and a feed direction, respectively, characterized by the steps of: automatically pausing operation of the feed draper and the at least one side draper in the feed direction in response to operation of the crop processing mechanism in the reverse direction; automatically resuming operation of the feed draper in the feed direction for conveying crop material in the feed direction in response to operation of the crop processing mechanism in the feed direction for a first predetermined period of time; automatically resuming operation of the at least one side draper in the feed direction for conveying crop material in the feed direction toward the feed draper in response to operation of the crop processing mechanism in the feed direction for a second predetermined period of time, longer than the first predetermined period of time; and automatically operating the feed draper in the reverse direction for movement of crop material thereon in the reverse direction in response to operation of the crop processing mechanism in the reverse direction for a third predetermined period of time. automatically pausing operation of the feed draper and the at least one side draper in the feed direction in response to operation of the crop processing mechanism in the reverse direction; automatically resuming operation of the feed draper in the feed direction for conveying crop material in the feed direction in response to operation of the crop processing mechanism in the feed direction for a first predetermined period of time; automatically resuming operation of the at least one side draper in the feed direction for conveying crop material in the feed direction toward the feed draper in response to operation of the crop processing mechanism in the feed direction for a second predetermined period of time, longer than the first predetermined period of time; and automatically operating the feed draper in the reverse direction for movement of crop material thereon in the reverse direction in response to operation of the crop processing mechanism in the reverse direction for a third predetermined period of time.
A method for detecting and locating defects on a cable comprising the following steps: - Measuring the parameters S of the cable; - Determining the apparent impedance of the cable as a function of the position z along the cable, both from one end of the cable Z l (z), and also from the other end of the cable Z r (z); - Determining an estimation of the linear resistance R(z) of the cable as a function of the position z along the cable: R z = Z l z − Z r z − Z l z + dz − Z r z + dz 2 ⁢ dz - Detecting a defect on a cable when the estimated linear resistance R(z) moves away from a reference value. - Measuring the parameters S of the cable; - Determining the apparent impedance of the cable as a function of the position z along the cable, both from one end of the cable Z l (z), and also from the other end of the cable Z r (z); - Determining an estimation of the linear resistance R(z) of the cable as a function of the position z along the cable: R z = Z l z − Z r z − Z l z + dz − Z r z + dz 2 ⁢ dz - Detecting a defect on a cable when the estimated linear resistance R(z) moves away from a reference value.
A spinal cage comprising: a first support plate pivotally connected to a second support plate by a hinge; and a plate mover actuated by an actuator and located between said first and second support plates (12, 14), said plate mover being arranged to slide against an inclined surface on said first support plate; wherein said hinge is journaled in an elongate aperture formed in a hinge housing protruding from said first support plate, said hinge being free to translate and rotate in said elongate aperture, characterized in that said spinal cage comprises one or more support members biased towards said hinge and/or said first support plate. a first support plate pivotally connected to a second support plate by a hinge; and a plate mover actuated by an actuator and located between said first and second support plates (12, 14), said plate mover being arranged to slide against an inclined surface on said first support plate; wherein said hinge is journaled in an elongate aperture formed in a hinge housing protruding from said first support plate, said hinge being free to translate and rotate in said elongate aperture, characterized in that said spinal cage comprises one or more support members biased towards said hinge and/or said first support plate.
A friction ring comprising: plural segments (126, 226) configured to be positioned around a hub or an axle to form a ring-shaped body, each of the segments including: a front side and a rear side, each side having an outer surface (128, 228) positioned to be contacted by a brake mechanism and an inner surface (130, 230) positioned to contact a portion of the hub or the axle to impart a braking force; one or more through-holes (158, 258) extending between the outer surface of the front side and the outer surface of the rear side and positioned to receive one or more fasteners for fixing the segment to the hub or the axle; and protrusions (135, 235) extending from the inner surface of the front side to the inner surface of the rear side of each segment of the segments, the protrusions forming a radially open channel (150, 250) therebetween, characterized in that the protrusions comprise radially extending fins and two or more transverse ribs extending between a pair of neighboring fins of the radially extending fins, the two or more transverse ribs being positioned on a radially outer half of at least one segment of the segments to define a curving airflow path and arranged such that at least one radius of each segment passes through at least two ribs of the two or more transverse ribs, the two or more transverse ribs forming an inflow portion (152, 254) adjacent an outer circumferential edge of the segment. a front side and a rear side, each side having an outer surface (128, 228) positioned to be contacted by a brake mechanism and an inner surface (130, 230) positioned to contact a portion of the hub or the axle to impart a braking force; one or more through-holes (158, 258) extending between the outer surface of the front side and the outer surface of the rear side and positioned to receive one or more fasteners for fixing the segment to the hub or the axle; and protrusions (135, 235) extending from the inner surface of the front side to the inner surface of the rear side of each segment of the segments, the protrusions forming a radially open channel (150, 250) therebetween, characterized in that the protrusions comprise radially extending fins and two or more transverse ribs extending between a pair of neighboring fins of the radially extending fins, the two or more transverse ribs being positioned on a radially outer half of at least one segment of the segments to define a curving airflow path and arranged such that at least one radius of each segment passes through at least two ribs of the two or more transverse ribs, the two or more transverse ribs forming an inflow portion (152, 254) adjacent an outer circumferential edge of the segment.
A method for drying a biologically active material comprising the steps of: combining the biologically active material and a protecting agent for protecting the biologically active material, in an aqueous solvent to form a paste; and exposing the paste to travelling wave radiant energy under vacuum to boil the solvent from the paste.
A process for the preparation of at least one polyarylether comprising: reacting polyarylether forming reactants in a reactor solution, said reaction solution comprising at least one polar aprotic solvent and the polyarylether forming reactants with removing of water in the absence of azeotrope forming cosolvent and adding fresh polar aprotic solvent to the reactor solution during the reaction, wherein the polar aprotic solvent is dimethylacetamide, N-methylpyrrolidone, dimethylsulfoxide, diphenylsulfone, or any combinations thereof. reacting polyarylether forming reactants in a reactor solution, said reaction solution comprising at least one polar aprotic solvent and the polyarylether forming reactants with removing of water in the absence of azeotrope forming cosolvent and adding fresh polar aprotic solvent to the reactor solution during the reaction, wherein the polar aprotic solvent is dimethylacetamide, N-methylpyrrolidone, dimethylsulfoxide, diphenylsulfone, or any combinations thereof.