mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus comprising: a first feed point ; a first radiator coupled to the first feed point ; a housing defining an interior surface of the apparatus and including a first conductive cover portion coupled to the first radiator and a second conductive cover portion , different from the first radiator and the first conductive cover portion , wherein the first conductive cover portion defines a first exterior surface of the apparatus and the second conductive cover portion defines a second exterior surface of the apparatus ; a ground member coupled to the first conductive cover portion and positioned at least partially within a cavity defined by the interior surface of the housing , at least the first conductive cover portion and the first radiator having an electrical length configured to resonate in a first operational frequency band and the first radiator being configured to electromagnetically couple to the first conductive cover portion ; wherein the first conductive cover portion and the ground member define an aperture there between, the dimensions of the aperture at least partially determining an electrical length of the first conductive cover portion ; characterised in that the first feed point is positioned on the first conductive cover portion or on a conductive member coupled to the first conductive cover portion , and the apparatus further comprises a transmission line provided along at least a portion of the first conductive cover portion and configured to interconnect the first feed point with radio frequency circuitry. a first feed point ; a first radiator coupled to the first feed point ; a housing defining an interior surface of the apparatus and including a first conductive cover portion coupled to the first radiator and a second conductive cover portion , different from the first radiator and the first conductive cover portion , wherein the first conductive cover portion defines a first exterior surface of the apparatus and the second conductive cover portion defines a second exterior surface of the apparatus ; a ground member coupled to the first conductive cover portion and positioned at least partially within a cavity defined by the interior surface of the housing , at least the first conductive cover portion and the first radiator having an electrical length configured to resonate in a first operational frequency band and the first radiator being configured to electromagnetically couple to the first conductive cover portion ; wherein the first conductive cover portion and the ground member define an aperture there between, the dimensions of the aperture at least partially determining an electrical length of the first conductive cover portion ; characterised in that the first feed point is positioned on the first conductive cover portion or on a conductive member coupled to the first conductive cover portion , and the apparatus further comprises a transmission line provided along at least a portion of the first conductive cover portion and configured to interconnect the first feed point with radio frequency circuitry.
A device for cleaning an optical communication device , comprising: a hollow outer stem ; an inner stem core , fitting within a length of the hollow outer stem and slidable along the length of the hollow outer stem ; a locking handle coupled to a top end of the inner stem core , movable between a released position and a locked position, wherein moving the locking handle to the locked position from the released position slides the inner stem core within the hollow outer stem ; a flexible base coupled to a bottom end of the hollow outer stem , transformable between a contracted position when the locking handle is in the released position and an expanded position when the locking handle is in the locked position; at least one ring seal coupled to the flexible base ; and a flexible cover wrapped around the flexible base and the at least one ring seal . a hollow outer stem ; an inner stem core , fitting within a length of the hollow outer stem and slidable along the length of the hollow outer stem ; a locking handle coupled to a top end of the inner stem core , movable between a released position and a locked position, wherein moving the locking handle to the locked position from the released position slides the inner stem core within the hollow outer stem ; a flexible base coupled to a bottom end of the hollow outer stem , transformable between a contracted position when the locking handle is in the released position and an expanded position when the locking handle is in the locked position; at least one ring seal coupled to the flexible base ; and a flexible cover wrapped around the flexible base and the at least one ring seal .
A system for simultaneously measuring the indentation hardness properties, span properties, and resilience properties of a mattress , comprising a first indentation means and a second indentation means , and means for urging the first indentation means and the second indentation means , into the mattress with a predetermined force, and also comprising laser means for projecting a laser line onto the surface of the mattress spanning between the first indentation means and the second indentation means and configured to map the amplitude, shape, and time-dependency of the resultant deflection of the mattress surface between the first indentation means and the second indentation means .
A method of making a superelastic medical device with a radiopaque marker, the method comprising: threading a radiopaque marker having an elongated shape over a wire comprising a shape memory alloy; after the threading, securing the wire in a predetermined configuration to a mandrel ; heat setting the wire while secured to the mandrel in an inert gas atmosphere so as to impart a memory of the predetermined configuration to the wire and superelastic properties to the shape memory alloy, thereby forming a superelastic medical device including the radiopaque marker . threading a radiopaque marker having an elongated shape over a wire comprising a shape memory alloy; after the threading, securing the wire in a predetermined configuration to a mandrel ; heat setting the wire while secured to the mandrel in an inert gas atmosphere so as to impart a memory of the predetermined configuration to the wire and superelastic properties to the shape memory alloy, thereby forming a superelastic medical device including the radiopaque marker .
A method for monitoring level of saturation of a chromatography media in a column , characterized in that the method comprises measuring a first pressure at the inlet of an unloaded column; measuring a second pressure at the inlet of a loaded column; and comparing the first and second pressure measurement to determine the level of saturation of the chromatography media. measuring a first pressure at the inlet of an unloaded column; measuring a second pressure at the inlet of a loaded column; and comparing the first and second pressure measurement to determine the level of saturation of the chromatography media.
Piston for the compression of a pneumatic fluid in a compression chamber (CC) of a cylinder (C) comprising: - a cylindrically shaped piston body , adapted to be arranged slidably within said cylinder (C), and having a side wall and a top wall ; along a circumferential perimeter of said side wall of the piston body a seat being defined; and - a sealing assembly accommodated in said seat , and adapted to ensure the fluid-tightness along said circumferential perimeter ; the piston being characterized in that , the sealing assembly comprises a plurality of sealing elements , having shapes complementary to one another, and configured so that the wear of a sealing element along said circumferential perimeter corresponds to a sliding in the radially outer direction of the adjacent sealing element ; in an operational condition wherein the piston slides within the cylinder (C), the radially outer portion of the sealing elements jointly defines a continuous profile along said circumferential perimeter in such a way to preserve the fluid-tightness. - a cylindrically shaped piston body , adapted to be arranged slidably within said cylinder (C), and having a side wall and a top wall ; along a circumferential perimeter of said side wall of the piston body a seat being defined; and - a sealing assembly accommodated in said seat , and adapted to ensure the fluid-tightness along said circumferential perimeter ; the piston being characterized in that , the sealing assembly comprises a plurality of sealing elements , having shapes complementary to one another, and configured so that the wear of a sealing element along said circumferential perimeter corresponds to a sliding in the radially outer direction of the adjacent sealing element ; in an operational condition wherein the piston slides within the cylinder (C), the radially outer portion of the sealing elements jointly defines a continuous profile along said circumferential perimeter in such a way to preserve the fluid-tightness.
A carrier selection method, wherein the method comprises: obtaining channel busy ratios, CBRs, of a plurality of candidate carriers; and selecting , when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers, characterized in that the selecting , when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers comprises: when the location of the terminal device moves from the first zone to the second zone, determining whether a CBR of a first carrier exceeds a third threshold, wherein the first carrier is a carrier used in current data transmission; and if the CBR of the first carrier exceeds the third threshold, selecting a carrier from the plurality of carriers according to the CBRs of the plurality of carriers. obtaining channel busy ratios, CBRs, of a plurality of candidate carriers; and selecting , when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers, characterized in that the selecting , when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers comprises: when the location of the terminal device moves from the first zone to the second zone, determining whether a CBR of a first carrier exceeds a third threshold, wherein the first carrier is a carrier used in current data transmission; and if the CBR of the first carrier exceeds the third threshold, selecting a carrier from the plurality of carriers according to the CBRs of the plurality of carriers. when the location of the terminal device moves from the first zone to the second zone, determining whether a CBR of a first carrier exceeds a third threshold, wherein the first carrier is a carrier used in current data transmission; and if the CBR of the first carrier exceeds the third threshold, selecting a carrier from the plurality of carriers according to the CBRs of the plurality of carriers.
An immunoconjugate comprising a modified antibody or antibody fragment thereof, wherein said modified antibody or antibody fragment comprises a substitution of the amino acid with cysteine on its constant region at position 152 of the heavy chain of said antibody or antibody fragment, and wherein said position is numbered according to the EU system.
An anode for a lithium secondary battery, wherein an anode material layer is formed on at least one surface of an anode current collector, and the anode material layer comprises natural graphite, a silicon-based material, and artificial graphite, and satisfies the following conditions 1 to 3: [Condition 1] Diameter D50 of the natural graphite (D 1 ): 5 to 30 μm [Condition 2] Diameter D50 of the silicon-based material (D 2 ): 0.2D 1 to 0.4D 1 [Condition 3] Diameter D50 of the artificial graphite (D 3 ): 0.2D 1 to 0.4D 1 , or 0.2D 2 to 0.4D 2 wherein the natural graphite is spherical graphite; and wherein the artificial graphite is in the form of a flake or a plate; the average diameter (D50)based on the volume of the particles is measured using a laser diffraction method; wherein the anode material layer comprises 50 to 98 wt% of the natural graphite, 1 to 30 wt% of the silicon-based material, and 1 to 20 wt% of the artificial graphite, based on a total weight of the natural graphite, the silicon-based material and the artificial graphite. the anode material layer comprises natural graphite, a silicon-based material, and artificial graphite, and satisfies the following conditions 1 to 3: [Condition 1] Diameter D50 of the natural graphite (D 1 ): 5 to 30 μm [Condition 2] Diameter D50 of the silicon-based material (D 2 ): 0.2D 1 to 0.4D 1 [Condition 3] Diameter D50 of the artificial graphite (D 3 ): 0.2D 1 to 0.4D 1 , or 0.2D 2 to 0.4D 2 [Condition 1] Diameter D50 of the natural graphite (D 1 ): 5 to 30 μm [Condition 2] Diameter D50 of the silicon-based material (D 2 ): 0.2D 1 to 0.4D 1 [Condition 3] Diameter D50 of the artificial graphite (D 3 ): 0.2D 1 to 0.4D 1 , or 0.2D 2 to 0.4D 2 wherein the natural graphite is spherical graphite; and wherein the artificial graphite is in the form of a flake or a plate; the average diameter (D50)based on the volume of the particles is measured using a laser diffraction method; wherein the anode material layer comprises 50 to 98 wt% of the natural graphite, 1 to 30 wt% of the silicon-based material, and 1 to 20 wt% of the artificial graphite, based on a total weight of the natural graphite, the silicon-based material and the artificial graphite.
A 3D scanning device comprising: - a plurality of image acquisition modules connected to one another via connection elements , wherein the connection elements , together with the image acquisition modules , enclose a scanning region of the 3D scanning device , wherein each image acquisition module comprises a plurality of image acquisition devices arranged vertically above one another, and wherein each image acquisition device comprises: - multiple optical sensors arranged on a horizontal axis , - an adjusting apparatus which is configured to vary the angle of inclination of the optical sensors , and - a sensor controller configured to control the adjusting apparatus and configured to adjust and trigger the image acquisition of the optical sensors ; and - a control and evaluation apparatus for controlling and evaluating the images of the image acquisition devices , wherein the control and evaluation device is set up to actuate each image acquisition device separately and individually and to align the angle of inclination of its optical sensors , characterized in that - the control and evaluation apparatus is set up to vertically scan an object by sequentially altering the angle of inclination of the optical sensors of the image acquisition devices , and - the 3D scanning device is set up to acquire images of the image acquisition devices for each altered angle of inclination, and - the control and evaluation apparatus is set up to evaluate the individual images of the image acquisition devices in order to form an overall image of the object by means of photogrammetry. - a plurality of image acquisition modules connected to one another via connection elements , wherein the connection elements , together with the image acquisition modules , enclose a scanning region of the 3D scanning device , - multiple optical sensors arranged on a horizontal axis , - an adjusting apparatus which is configured to vary the angle of inclination of the optical sensors , and - a sensor controller configured to control the adjusting apparatus and configured to adjust and trigger the image acquisition of the optical sensors ; and - a control and evaluation apparatus for controlling and evaluating the images of the image acquisition devices , wherein the control and evaluation device is set up to actuate each image acquisition device separately and individually and to align the angle of inclination of its optical sensors , characterized in that - the control and evaluation apparatus is set up to vertically scan an object by sequentially altering the angle of inclination of the optical sensors of the image acquisition devices , and - the 3D scanning device is set up to acquire images of the image acquisition devices for each altered angle of inclination, and - the control and evaluation apparatus is set up to evaluate the individual images of the image acquisition devices in order to form an overall image of the object by means of photogrammetry.
A photoelectric composite module comprising: a first connecting member having an outer frame having a tubular shape; and a plurality of contacts provided in an interior of the outer frame; a first printed circuit board on which a photoelectric converter to which at least one optical fiber is connected is mounted, wherein the first printed circuit board is configured to act as a relay between the contacts and the photoelectric conversion element and the photoelectric converter is configured to convert an electrical signal into an optical signal, a second printed circuit board to which electrical wires are connected and which is configured to act as a relay between the contacts and the electrical wires , the first printed circuit board on which the photoelectric converter is mounted and the second printed circuit board to which the electrical wires are connected being three-dimensionally arranged in different planes; and wherein at least a part of the first printed circuit board and at least a part of the second printed circuit board are arranged in an overlapping manner. a first connecting member having an outer frame having a tubular shape; and a plurality of contacts provided in an interior of the outer frame; a first printed circuit board on which a photoelectric converter to which at least one optical fiber is connected is mounted, wherein the first printed circuit board is configured to act as a relay between the contacts and the photoelectric conversion element and the photoelectric converter is configured to convert an electrical signal into an optical signal,
An optical system for displaying enhanced imaging of a scene to a user when worn by the user characterized by an active optical component , wherein the active optical component includes a first plurality of light directing apertures , a second plurality of light directing apertures , and a stacked component between the first plurality of light directing apertures and the second plurality of light directing apertures , wherein the stacked component includes an optical detector having a thickness in the range from 2 to 20 microns, a processor having a thickness in the range from 2 to 20 microns, and a display having a thickness in the range from 10 to 30 microns, wherein the processor stacked between and bonded to the optical detector and the display , wherein the first plurality of light directing apertures is positioned to provide an optical input to the optical detector , wherein the optical detector is positioned to receive the optical input and convert the optical input to an electrical signal corresponding to intensity and location data, wherein the processor is connected to receive the data from the optical detector and process the data for the display , wherein the second plurality of light directing apertures is positioned to provide an optical output from the display to an eye of the user, and wherein the active optical component is sized and configured to fit within a lens frame of eyeglasses .
A laser device , comprising: a light source that outputs a laser beam; an optical fiber that propagates the laser beam; a cable coating in which the optical fiber is inserted; an optical connector connected to a tip of the cable coating ; a pair of disconnection detection lines , comprising a first disconnection detection line and a second disconnection detection line , wherein a first end portion of the first disconnection detection line and a first end portion of the second disconnection detection line are located inside the optical connector , are electrically connected inside the optical connector and the first disconnection detection line and the second disconnection detection line detect a disconnection of the optical fiber due to an interruption of energization between the first disconnection detection line and the second disconnection detection line ; a pair of open detection lines comprising a first open detection line and a second open detection line , wherein a first end portion of the first open detection line and a first end portion of a second open detection line are disposed inside the optical connector and are electrically disconnected inside the optical connector ; and a determination portion to which a second end portion of the first disconnection detection line , a second end portion of the second disconnection detection line , a second end portion of the first open detection line , and a second end portion of the second open detection line are connected. a light source that outputs a laser beam; an optical fiber that propagates the laser beam; a cable coating in which the optical fiber is inserted; an optical connector connected to a tip of the cable coating ; a pair of disconnection detection lines , comprising a first disconnection detection line and a second disconnection detection line , wherein a first end portion of the first disconnection detection line and a first end portion of the second disconnection detection line are located inside the optical connector , are electrically connected inside the optical connector and the first disconnection detection line and the second disconnection detection line detect a disconnection of the optical fiber due to an interruption of energization between the first disconnection detection line and the second disconnection detection line ; a pair of open detection lines comprising a first open detection line and a second open detection line , wherein a first end portion of the first open detection line and a first end portion of a second open detection line are disposed inside the optical connector and are electrically disconnected inside the optical connector ; and a determination portion to which a second end portion of the first disconnection detection line , a second end portion of the second disconnection detection line , a second end portion of the first open detection line , and a second end portion of the second open detection line are connected.