mhurhangee/ep-ind-claims huggingface dataset:
An intraoral scanning system comprising: a scanning device configured to illuminate an object of interest with a burst light pattern at one or more intervals and receive a set of reflected images reflected off the object of interest; and a processing device configured to receive the set of reflected images from the scanning device and convert the set of reflected images into a three-dimensional model of the object of interest, wherein the burst light pattern comprises a first image and a second image in succession, wherein one of the first image and the second image is a structured light image and the other of the first image and the second image is an unstructured light image, and characterised in that the structured light image is a houndstooth pattern. a scanning device configured to illuminate an object of interest with a burst light pattern at one or more intervals and receive a set of reflected images reflected off the object of interest; and a processing device configured to receive the set of reflected images from the scanning device and convert the set of reflected images into a three-dimensional model of the object of interest, wherein the burst light pattern comprises a first image and a second image in succession, wherein one of the first image and the second image is a structured light image and the other of the first image and the second image is an unstructured light image, and characterised in that the structured light image is a houndstooth pattern.
An aqueous adhesive composition comprising a polymer that comprises (a) 80% to 99% by weight, based on the dry weight of said polymer, polymerized units of one or more alkyl (meth)acrylate monomer, (b) 0.1% to 10% by weight, based on the dry weight of said polymer, polymerized units of acrylic acid or methacrylic acid or a mixture thereof, (c) 2% to 15% by weight, based on the dry weight of said polymer, polymerized units of one or more dialkyl diester of itaconic acid, and (d) 0% to 20% by weight, based on the dry weight of said polymer, polymerized units of one or more other monomer. (a) 80% to 99% by weight, based on the dry weight of said polymer, polymerized units of one or more alkyl (meth)acrylate monomer, (b) 0.1% to 10% by weight, based on the dry weight of said polymer, polymerized units of acrylic acid or methacrylic acid or a mixture thereof, (c) 2% to 15% by weight, based on the dry weight of said polymer, polymerized units of one or more dialkyl diester of itaconic acid, and (d) 0% to 20% by weight, based on the dry weight of said polymer, polymerized units of one or more other monomer.
A suspension coil spring for interposition between an upper seat and a lower seat of a strut type suspension device for a vehicle, wherein the suspension coil spring is formed such that, in a free state, a coil axis is bent in a V shape at a bent point which is a portion that corresponds to an end turn portion (32, 34) from a spring terminal to R th turn (R is a positive real number), wherein both the portion of the coil axis from the bend point toward an upper end turn portion and the portion of the coil axis from the bend point toward a lower end turn portion are straight; at least one of a center of an upper end turn portion and a center of a lower end turn portion is made eccentric in a predetermined eccentric amount in a predetermined eccentric direction, with respect to an imaginary coil axis (Al) that is a presumed coil axis having a bending angle at the bending point that is 0°, a lead angle of each of the upper end turn portion and the lower end turn portion is set such that in the free state each of an upper seating surface and a lower seating surface forms a plane substantially perpendicular to the imaginary coil axis, and the eccentric direction and the eccentric amount of each center of the upper end turn portion and the lower end turn portion with respect to the imaginary coil axis (Al) are set such that when compressing the coil spring in a direction that, in use, is along the strut axis of the suspension device so that the angle between the upper seating surface and the imaginary coil axis (Al) and the angle between the lower seating surface and the imaginary coil axis (Al) are unchanged, and the direction of a spring reaction axis of the coil spring is sufficiently close to the direction of the load input axis that, in use, is an axis of a load input into the suspension device.
A transducer for a rotary position sensor comprising: one or more coils: i) each arranged along a circular measurement path centred about a sensor axis; and ii) each extending between an inner radius and an outer radius of the measurement path; and a target that is arranged to magnetically couple with said one or more coils so that signals are generated that depend on the relative rotational position of the target and the one or more coils; and characterised in that said target is asymmetric relative to the one or more coils having first, second and third portions adjacent the one or more coils; the first, second and third portions being circumferentially spaced apart from each other around the circular measurement path and being arranged relative to a target axis that is intended to be aligned with the sensor axis: i) so that said first portion is positioned between said inner and outer radii during the relative rotation of said target and said one or more coils; and ii) so that said second and third portions are positioned adjacent said inner radius or said outer radius during the relative rotation of said target and said one or more coils; and said second and third portions of the target are arranged on either side of the target axis to compensate for misalignments between the target axis and the sensor axis. one or more coils: i) each arranged along a circular measurement path centred about a sensor axis; and ii) each extending between an inner radius and an outer radius of the measurement path; and a target that is arranged to magnetically couple with said one or more coils so that signals are generated that depend on the relative rotational position of the target and the one or more coils; and characterised in that said target is asymmetric relative to the one or more coils having first, second and third portions adjacent the one or more coils; the first, second and third portions being circumferentially spaced apart from each other around the circular measurement path and being arranged relative to a target axis that is intended to be aligned with the sensor axis: i) so that said first portion is positioned between said inner and outer radii during the relative rotation of said target and said one or more coils; and ii) so that said second and third portions are positioned adjacent said inner radius or said outer radius during the relative rotation of said target and said one or more coils; and said second and third portions of the target are arranged on either side of the target axis to compensate for misalignments between the target axis and the sensor axis.
A reinforced box for containing a plurality of items to be packaged, comprising: - a bottom wall and a top wall; - a pair of first side walls (5, 5') and a pair of second side walls (6, 6'); wherein said bottom wall, said top wall and said pair of first side walls (5, 5') are formed by a one-piece elongate element which extends along a longitudinal axis in an unassembled state of the box and is provided with transverse fold lines wherein said pair of second side walls (6, 6') is formed by two separate end panels (22, 23); wherein creasing lines are provided, which define first side wings (14, 14') in said bottom and top walls, and in said pair of first side walls (5, 5'), and second side wings (15, 15') in said pair of second side walls (6, 6'); wherein said pair of first side walls (5, 5') have corrugations with first extension lines (y, y 1,...y n) and said pair of second side walls (6, 6') have corrugations with second extension lines (x, x 1,...x n); wherein said second extension lines (x, x 1,...x n) of the corrugations of said pair of second side walls (6, 6') are substantially perpendicular to said first extension lines (y, y 1,...y n) and to said longitudinal axis with said box in the assembled state; characterized in that said separate end panels (22, 23) forming said pair of second side walls (6, 6') have the same width in a transverse direction as that of said one-piece elongate element forming said top wall, said bottom wall, and said first side walls (5, 5') in the unassembled state of the box, said end panels (22, 23) and said one-piece elongate element being different portions of a same longitudinal strip having said width in a transverse direction, each of said second side walls (6, 6') being glued to said bottom wall by means of a respective second side wing overlapping said bottom wall to reinforce its longitudinal edges. - a bottom wall and a top wall; - a pair of first side walls (5, 5') and a pair of second side walls (6, 6'); wherein said bottom wall, said top wall and said pair of first side walls (5, 5') are formed by a one-piece elongate element which extends along a longitudinal axis in an unassembled state of the box and is provided with transverse fold lines
A manufacturing method of a bonded wafer comprising: a step of preparing a bond wafer which is a single crystal silicon substrate; a step of forming an insulating film on the side of at least the bonding surface side of the bond wafer; a first ion implantation step of conducting first ion implantation on the bond wafer so that a concentration peak of ion implantation is located at a position with a predetermined depth in an ion implantation profile in a depth direction from the surface of the bond wafer; an additional function layer deposition step of depositing an additional function layer, which is made of a polysilicon layer or an amorphous silicon layer, on a ion implantation surface side of the bond wafer after conducting the first ion implantation step; a second ion implantation step of conducting second implantation with the first ion implantation position as a target from the additional function layer side of the bond wafer after conducting the additional function layer deposition step; a bonding step of bonding the additional function layer side of the bond wafer to a base wafer after conducting the second ion implantation step; and a delamination step of separating the bond wafer off at the position of the first ion implantation, wherein the first ion implantation adopts an ion implantation dosage causing no cracking in the bond wafer in a course of a thermal history in growth of the additional function layer. a step of preparing a bond wafer which is a single crystal silicon substrate; a step of forming an insulating film on the side of at least the bonding surface side of the bond wafer; a first ion implantation step of conducting first ion implantation on the bond wafer so that a concentration peak of ion implantation is located at a position with a predetermined depth in an ion implantation profile in a depth direction from the surface of the bond wafer; an additional function layer deposition step of depositing an additional function layer, which is made of a polysilicon layer or an amorphous silicon layer, on a ion implantation surface side of the bond wafer after conducting the first ion implantation step; a second ion implantation step of conducting second implantation with the first ion implantation position as a target from the additional function layer side of the bond wafer after conducting the additional function layer deposition step; a bonding step of bonding the additional function layer side of the bond wafer to a base wafer after conducting the second ion implantation step; and
An endoscopic forceps operable selectively in bipolar mode or a monopolar mode, comprising: a housing having a shaft affixed thereto, the shaft including first and second jaw members (110; 120; 820) attached to a distal end thereof; an actuator operable to move at least one jaw member relative to the other jaw member from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate to grasp tissue therebetween; each jaw member including an outer housing overmolded to encapsulate an electrically conductive tissue engaging surface, each electrically conductive tissue engaging surface adapted to connect to a source of electrosurgical energy such that the electrically conductive tissue engaging surfaces selectively conduct bipolar energy through tissue held therebetween in said bipolar mode; and at least one of the electrically conductive tissue engaging surfaces including an extension that extends through the distal end of a respective one of the jaw members, the extension defining a monopolar element adapted to connect to the source of electrosurgical energy such that the monopolar element is selectively activated to treat tissue in said monopolar mode. a housing having a shaft affixed thereto, the shaft including first and second jaw members (110; 120; 820) attached to a distal end thereof; an actuator operable to move at least one jaw member relative to the other jaw member from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate to grasp tissue therebetween; each jaw member including an outer housing overmolded to encapsulate an electrically conductive tissue engaging surface, each electrically conductive tissue engaging surface adapted to connect to a source of electrosurgical energy such that the electrically conductive tissue engaging surfaces selectively conduct bipolar energy through tissue held therebetween in said bipolar mode; and at least one of the electrically conductive tissue engaging surfaces including an extension that extends through the distal end of a respective one of the jaw members, the extension defining a monopolar element adapted to connect to the source of electrosurgical energy such that the monopolar element is selectively activated to treat tissue in said monopolar mode.
Imaging apparatus comprising: - a radiation source for emitting radiation from a focal region through an imaging area, - a detection unit for detecting radiation from said imaging area, said detection unit comprising an anti-scatter grid and a detector, - a gantry to which said radiation source and said detection unit are mounted and which allows rotation of said radiation source and said detection unit around said imaging area, and - a controller for controlling said detection unit to detect radiation at a plurality of projection positions during rotation around said imaging area, characterised in that the controller is adapted for manipulating the position, setting and/or orientation of at least a part of said radiation source and/or said detection unit at first projection positions so that the radiation incident on the detector at said first projection positions is attenuated by said anti-scatter grid to a larger extent compared to second projection positions representing the remaining projection positions. - a radiation source for emitting radiation from a focal region through an imaging area, - a detection unit for detecting radiation from said imaging area, said detection unit comprising an anti-scatter grid and a detector, - a gantry to which said radiation source and said detection unit are mounted and which allows rotation of said radiation source and said detection unit around said imaging area, and - a controller for controlling said detection unit to detect radiation at a plurality of projection positions during rotation around said imaging area, characterised in that the controller is adapted for manipulating the position, setting and/or orientation of at least a part of said radiation source and/or said detection unit at first projection positions so that the radiation incident on the detector at said first projection positions is attenuated by said anti-scatter grid to a larger extent compared to second projection positions representing the remaining projection positions.
A window frame, in particular a roof window frame, provided with a bolt socket unit containing a bolt socket body, made in particular of plastic, which is sunk in a structural member of the window frame, and has at least one bolt recess for accommodating the handle bolt in the closed window position and a flange around the bolt socket body, advantageously monolithic with the bolt socket body, resting against the window frame surface, characterized in that the bolt socket body (1, 6) on the side sunk in the window frame is supported with a bracket (5, 8), advantageously made of metal, having a working face (56, 83) which adjoins the wall (16, 66) of the bolt recess (13, 66) in the place where on the other.side of this wall (16, 66) the handle bolt rests against it in the closed window position, wherein the bracket has a bearing surface (57,84) which is opposite to the bracket working face (56, 83) and rests against the window frame in a place more distant from the window sash than the bracket working face (56, 83).
A barrel for use with a liquid spray gun platform to provide a liquid spray gun, comprising: a main body comprising at least one center air delivery passage and at least one liquid-handling passage; and, an inseparable nozzle, wherein the nozzle defines a liquid-emitting orifice that is in fluid communication with the at least one liquid-handling passage of the main body, wherein the nozzle defines a center air orifice that is in fluid communication with the at least one center air delivery passage of the main body, and wherein the inseparable nozzle comprises an annular tip that defines the liquid-emitting orifice; characterized in that the inseparable nozzle further comprises a flange at least a portion of which is radially outwardly separated from the annular tip so that the center air orifice is defined between radially outward-facing surfaces of the annular tip and radially inward-facing surfaces of the flange. a main body comprising at least one center air delivery passage and at least one liquid-handling passage; and, an inseparable nozzle, wherein the nozzle defines a liquid-emitting orifice that is in fluid communication with the at least one liquid-handling passage of the main body, wherein the nozzle defines a center air orifice that is in fluid communication with the at least one center air delivery passage of the main body, and wherein the inseparable nozzle comprises an annular tip that defines the liquid-emitting orifice; wherein the nozzle defines a liquid-emitting orifice that is in fluid communication with the at least one liquid-handling passage of the main body, wherein the nozzle defines a center air orifice that is in fluid communication with the at least one center air delivery passage of the main body, and wherein the inseparable nozzle comprises an annular tip that defines the liquid-emitting orifice; characterized in that the inseparable nozzle further comprises a flange at least a portion of which is radially outwardly separated from the annular tip so that the center air orifice is defined between radially outward-facing surfaces of the annular tip and radially inward-facing surfaces of the flange.
A method for developing a geological reservoir according to a development scheme defined from a reservoir model, said reservoir model comprising a grid associated with at least one parameter of said reservoir, said reservoir being traversed by at least one production well and at least one injection well for injection of at least one fluid into said reservoir, a method wherein dynamic data are acquired during development, characterized in that the following stages are carried out: a) generating a first reservoir model where the breakthrough time estimated by means of said first reservoir model is representative of the breakthrough time measured for said reservoir, said breakthrough time being the time required for said injected fluid to be detected at said production well, b) constructing said reservoir model by modifying said first reservoir model by means of the following stages: i) determining an objective function measuring a difference between acquired dynamic data and dynamic data simulated using said reservoir model and a flow simulator, ii) repeating stage i) so as to minimize said objective function after modifying said reservoir model, c) determining an optimum development scheme for said reservoir by simulating reservoir development by means of said reservoir model and said flow simulator, and d) developing said reservoir by implementing said optimum development scheme. a) generating a first reservoir model where the breakthrough time estimated by means of said first reservoir model is representative of the breakthrough time measured for said reservoir, said breakthrough time being the time required for said injected fluid to be detected at said production well, b) constructing said reservoir model by modifying said first reservoir model by means of the following stages: i) determining an objective function measuring a difference between acquired dynamic data and dynamic data simulated using said reservoir model and a flow simulator, ii) repeating stage i) so as to minimize said objective function after modifying said reservoir model, i) determining an objective function measuring a difference between acquired dynamic data and dynamic data simulated using said reservoir model and a flow simulator, ii) repeating stage i) so as to minimize said objective function after modifying said reservoir model, c) determining an optimum development scheme for said reservoir by simulating reservoir development by means of said reservoir model and said flow simulator, and d) developing said reservoir by implementing said optimum development scheme.