56 results about "Diagonal Axis" patented technology

The present invention relates to inspection methods and systems utilized to provide a best means for inspection of a wafer. The methods and systems include wafer-to-reticle alignment, layer-to-layer alignment and wafer surface feature inspection. The wafer-to-reticle alignment is improved by the addition of diagonal lines to existing alignment marks to decrease the intersection size and corresponding area that a desired point can reside. Layer-to-layer alignment is improved in a similar manner by the addition of oblique and/or non-linear line segments to existing overlay targets. Also, providing for wafer surface inspection in a multitude of desired diagonal axes allows for more accurate feature measurement.

The present invention may be used as a beach blanket. A blanket may be generally rectangular in shape with a tab attached at each corner. There may also be an interior tab attached on a bottom surface approximately on a corner diagonal axis adjacent each of the tabs. A frame may be generally an open rectangular shape with two opposed spaced apart longitudinal tubular members attached to two opposed and spaced apart lateral tubular members by four corner members. The corner members may have two orthogonal horizontal arms and an orthogonal vertical arm wherein each of the vertical arms have a lower attachment element and an upper attachment element for attachment of one of the tabs and one of the interior tabs.

A square-shaped floor pad includes two protrusions extending from two adjacent sides of each of the two corners on a first diagonal axis of the pad and two recesses are defined in two adjacent sides of each of two corners on a second diagonal axis of the pad. The protrusions are shaped to be matched with the recesses. The floor pads are able to be matched with each other by engaging the protrusion with the recesses in different directions and sides.

A cathode ray tube comprises a panel having a fluorescent formed on an inner surface thereof; a funnel connected to the panel; an electron gun housed in the funnel emitting electron beams; a deflection yoke for deflecting the electron beams in horizontal and vertical directions; a shadow mask for selecting colors of the electron beams; and a mask frame for supporting the shadow mask, in which an outer surface of the panel is substantially flat and an inner surface has a designated curvature, and a radius of curvature from a center of the shadow mask in a major-axis, minor-axis and diagonal-axis direction is substantially same.

A wear plate for a box blade is provided. The wear plate includes a first surface and a second surface. The first and second surfaces are spaced apart from each other and define a thickness of the wear plate therebetween. The wear plate also includes a plurality of openings formed on the wear plate and communicating with the first and second surfaces thereof. The plurality of openings is positioned along a diagonal axis of the wear plate. The plurality of openings is configured to be aligned with corresponding openings formed on a backer plate of the box blade to receive mechanical fasteners therethrough for attaching the wear plate to the backer plate. The wear plate includes a first wear surface defined on one side of the diagonal axis of the wear plate and a second wear surface defined on the other side of the diagonal axis.

Game apparatus comprising a plurality of multi-sided, game and base pieces having notches whereby the pieces may be interlocked, and said pieces having two faces with indicia or other markings on at least some of the faces whereby words and/or equations and/or other things can be formed along horizontal and/or vertical and/or diagonal axes by placing game pieces adjacent to each and/or game pieces and/or base pieces interlocked into each other. Methods for playing games with said apparatus in two and/or three dimensions is disclosed.

The invention relates to an electromagnetic detecting device in the field of optical technology measurement, and provides a surface nano-structure magnetic measuring device. The surface nano-structuremagnetic measuring device comprises a laser device, a delayer, a 1/4 wave plate, a concave lens, a convex lens I, a plane mirror, a polaroid, a beam splitter, a convex lens II, a lens table, an atomic force microscope I, a probe I, a lens seat, an objective lens, a sample, a Hall plate, a sample table, a signal generator, an oscilloscope, a detector, a magnet, a pre-amplifier, a differential amplifier, a compensator, an analog-digital converter, a computer, an atomic force microscope II and a probe II, the probe I and the probe II are atomic force microscope probes with the same overall dimension, the appearances of the probe I and the probe II are circular truncated cones, the probe I is provided with a through hole in the axis direction of the circular truncated cone, a wedge-shaped block is cut off on one side of a diagonal axis through a point, which is the closest to the forward direction of an x axis, on the periphery of the bottom surface of the circular truncated cone of the probe I, an oblique plane is formed on the bottom surface of the probe I, a five-degree angle is formed between the oblique plane and the horizontal plane, and a magnetic is formed by connecting four secondary magnets which are the same.

A funnel for a cathode ray tube has a relationship 0<α(z)<d in an arbitrary cross section P(z) parallel with a plane including an open end portion, where α(z) is an angle (°) defined between a line and a major axis (LA) of the funnel, the line being connecting an outermost part D(z) on at least one of an outer surface and an inner surface of the body portion and a center axis (C) of the funnel, and d is an angle (°) defined between a diagonal axis (DA) of the funnel and the major axis (LA).

The invention provides a diagonal axis type dynamic weight measurement system and a diagonal axis type dynamic weight measurement method. The system comprises a diagonal piezoelectric axis, a driving-in speed piezoelectric axis and a driving-out speed piezoelectric axis which are arranged in a weight measurement area, and a control device which is connected with the diagonal piezoelectric axis, the driving-in piezoelectric axis and the driving-out speed piezoelectric axis. The control device calculates the weight of a truck according to electrical signals output by the diagonal piezoelectric axis, the driving-in piezoelectric axis and the driving-out speed piezoelectric axis, and displays the weight of the truck. The method comprises the following steps: the time difference is calculated according to two voltage curve peaks obtained when the two front wheels of a truck in a measurement area drive into the driving-in speed piezoelectric axis and the driving-out speed piezoelectric axis, and the speed of the truck is determined; the positions of the wheels are calculated according to the time difference between the two peaks of the front wheels obtained when the two front wheels drive into the diagonal piezoelectric axis; and the control device establishes a relevant database based on the peak area, truck speed, wheel position and ambient temperature obtained through integration of the voltage curve peaks acquired by the two front wheels, the driving-in speed piezoelectric axis and the driving-out speed piezoelectric axis, and a voltage curve is calculated and corrected to get the weight of the truck. The system and the method are used in traffic overweight detection and industrial park anti-theft detection.

A funnel for use in a cathode ray tube having a panel includes a body portion having a seal edge to be connected to the panel and having a major axis of two longer sides of the body portion, a minor axis of two shorter sides of the body portion and diagonal axes; a yoke portion extending backward from the body portion; and an inflection portion formed on at least one portion of an inner surface of the body portion at a predetermined distance from the seal edge. The inflection portion is formed such that a thickness of the seal edge is less than that of the body portion.

The present disclosure relates to an autostereoscopic three-dimensional (3D) display in which the multi view structure is configured by using a lenticular lens. The autostereoscopic 3D display includes a display panel including a plurality of pixels, and an aperture area disposed at each pixel; and a lens film disposed on a front surface of the display panel and including a plurality of lenticular lenses, the lenticular lenses having a slanted axis and continuously arrayed along to a lateral direction, wherein the aperture area includes a parallelogram shape, and wherein the slanted axis is parallel with any one diagonal axis of the aperture area.

A radius of curvature of an arc passing through three points on an outer surface of a panel, which respectively correspond to a pair of diagonal axis ends on one diagonal axis of a phosphor screen and a center of the phosphor screen, is 10,000 mm or more. A shadow mask is made of an aluminum killed material. Assuming that a thickness of the panel is Td at the diagonal axis end of the phosphor screen, Tmd at an intermediate point between the diagonal axis end and the center, Th at a major axis end of the phosphor screen, and Tmh at an intermediate point between the major axis end and the center, 0.5 ≦Tmd/Td≦0.62, and 0.65≦Tmh/Th≦0.80 are satisfied. Because of this, an inexpensive color picture tube can be provided, in which the visibility is excellent, the degradation in color purity caused by doming is suppressed, and the formability of the shadow mask is enhanced.

In a shadow mask 21, a large number of slots 23 are made in a mask body 22 in the horizontal direction X and in the vertical direction Y. Each slot 23 has a roughly rectangular backside opening 33, a roughly rectangular front-side opening 32, and a through-hole 31 that connects these two openings 33, 32. Of the multiple slots 23 made in the mask body 22, the slots 23 situated at least in those areas of the mask body 22 that are surrounded by a horizontal axis 24 and two diagonal axes 26, 27 that pass through the center point 28 of the mask body 22 have such front-side openings 32 that a pair of the upper and lower short sides 32c, 32d of the rectangular outline of the front-side opening 32 of each slot 23 are inclined, relative to the horizontal axis 24, along the radiate line 61 radiating from the center point 28 of the mask body 22 toward the slot 23. The angle [beta] of inclination of the short sides 32c, 32d is preferably in the range of +- 10 DEG , where +- is the angle [alpha] between the radiate line 61 radiating from the center point 28 of the mask body toward the slot 23 and the horizontal axis 24.

The invention relates to a four-rotation detection platform. The four-rotation detection platform comprises a detecting platform (1), a static platform (0), four UPS branches of identical structure and a middle branch, wherein the middle branch is located at the dead center of the detecting platform (1) and the static platform (0), one end of a link I (2) of the middle branch is fixedly connected with the static platform (0), the other end of the link I (2) is connected with a ball pair I (S5), and the ball pair I (S5) is connected with the detecting platform (1); the four UPS branches are all located at four top ends of the static platform (0), one end of each branch is connected with the static platform (0) through a Hooke hinge (U11), each Hooke hinge (U11) is connected with a moving pair I (P12) through a link II (3), each moving pair I (P12) is connected with a ball pair II (S13) through a link III (4), and each ball pair II (S13) is connected with the detecting platform (1); the moving pairs of the four UPS branches are driving pairs. According to the four-rotation detection platform, the rotational degree of freedom for the detecting platform (1) along two central axes of symmetry and two diagonal axes of the detecting platform (1) can be achieved separately, so that the four-rotation detection platform is adaptable to meeting the requirements of an automatic visual detection system on gesture adjustment.