41 results about "Anti reflective" patented technology

A display device (100) can include an antireflection pattern (152) or a column spacer (154) positioned between a light-emitting diode (D) and a bank layer (150), wherein the antireflection pattern (152) or the column spacer (154) contains a blue dye (135b). The blue light reflected by the antireflection pattern (152) or the column spacer (154) is barely perceptible to the human eye, thus helping to reduce visible spots such as rainbow mura caused by external light reflections. Furthermore, the blue light emitted by the light-emitting diode (D) can pass through the antireflection pattern (152) and / or the column spacer (154), thereby increasing the intensity of the transmitted light. This can improve image quality while minimizing brightness loss.

A pellicle for a reflective photo mask includes a frame, a core layer having a front surface and a rear surface, and disposed over the frame, a first capping layer disposed on the front surface of the core layer, an anti-reflection layer disposed on the first capping layer, a barrier layer disposed on the anti-reflection layer, and a heat emissive layer disposed on the barrier layer.

To provide an anti-reflective film having superior scratch resistance compared to conventional films, and an active energy ray curable composition for obtaining the anti-reflective film that exhibits excellent temporal stability. [Solution] An anti-reflective film having a laminated structure in which a light-transmitting substrate, a high refractive index layer (α), and a low refractive index layer (β) are arranged in this order, wherein the high refractive index layer (α) is a cured product of an active energy ray curable composition, and the active energy ray curable composition comprises a compound (A) having three or more (meth)acryloyl groups, a compound (B) having a silsesquioxane skeleton, metal oxide particles (C) with a refractive index of 1.70 to 2.72, and a photopolymerization initiator (D). (However, compound (A) excludes compound (B).)

The application belongs to the technical field of ultrasonic scanning, and particularly relates to a high-frequency ultrasonic probe and a preparation method thereof. The method comprises the following steps: S1, obtaining a conductor column and a piezoelectric film plated with electrodes on two surfaces after polarization; S2, processing a first end of the conductor column into a spherical arc surface and a first anti-reflection surface, and processing a second end of the conductor column into a second anti-reflection surface to form a backing; S3, coaxially fixing a first surface of the piezoelectric film to the spherical arc surface and the first anti-reflection surface; S4, sleeving an insulating inner shell around the backing, wrapping a shielding net around an outer side of the inner shell, bonding the shielding net to a second surface of the piezoelectric film through conductive glue, connecting a ground wire to the second anti-reflection surface, and connecting a signal wire to the shielding net to form a transducer; and S5, packaging the transducer into a metal shell as a whole, grounding the metal shell through a standard interface, and obtaining the high-frequency ultrasonic probe by plating a waterproof layer on the metal shell and the second surface of the piezoelectric film after packaging, which can be used for ultrasonic nondestructive testing.

The application discloses a camera module, a long-focus lens and electronic equipment, and belongs to the technical field of lens equipment. The camera module comprises a mounting portion, an incident portion, a first lens group, a second lens group and a light receiving portion which are sequentially mounted on the mounting portion along an incident direction of a light path, and further comprises a first light blocking portion. The first light blocking portion is mounted on a first side of the second lens group and is used for blocking a gap between the first side of the second lens group and an inner wall of the mounting portion. A first anti-reflection structure is arranged on a side wall of a side of the first light blocking portion close to the light receiving portion, and the first anti-reflection structure is used for dispersing light reflected from the light receiving portion to the side of the first light blocking portion close to the light receiving portion. The anti-reflection structure disperses the reflected light possibly generated on the side wall of the side of the first light blocking portion close to the light receiving portion, finally reduces the generation of stray light, and improves the quality and definition of a camera picture.

To provide an anti-reflective material having high light transmittance in the near-infrared wavelength range (800-2500 nm). [Solution] The system comprises a resin substrate and a particle layer made of mesoporous silica nanoparticles arranged on the surface of the resin substrate. Some of the aforementioned nanoparticles are directly immobilized on the surface of the resin substrate, and At least a portion of the nanoparticles directly immobilized on the surface of the resin substrate are embedded in the surface of the resin substrate. The aforementioned nanoparticles are arranged in two or more layers to form the particle layer, The thickness of the particle layer is 2 to 10 times the average particle diameter of the nanoparticles. The area occupied by the particle layer made of nanoparticles is 95% or more of the total surface area of ​​the resin substrate. An anti-reflective member characterized by the following features.

Display device (4) for motor vehicles (1), comprising at least the following elements, which are designed as superimposed layers of the display device: A micro-LED display, wherein the pixels (7) of the display each comprise three LEDs, each LED emitting light in one of the colors red, green or blue; Lenticular lenses (8), wherein one lens is arranged over each pixel of the micro-LED display; A circular polarizer (9) arranged above the lenticular lenses (8); A lamellar film (10) in which lamellae are integrated which have an inclination to the perpendicular of the film; A cover glass (11) having an anti-reflective surface.

The present application relates to the field of display, especially to a display panel and a display device. Wherein, the display panel comprises a display area, the display area comprises: a first display area and a second display area, the first display area comprises a plurality of first pixel circuits, and the second display area comprises a plurality of second pixel circuits. Along the first direction, the distance between adjacent first pixel circuits is less than the distance between adjacent second pixel circuits, and the first direction is parallel to the direction of the plane where the display panel is located. The display panel comprises a first metal structure and an anti-reflection structure. Wherein, along the direction perpendicular to the plane where the display panel is located, at least part of the first metal structure does not overlap with the anti-reflection structure in the first display area. In the second display area, along the direction perpendicular to the plane where the display panel is located, the anti-reflection structure covers the first metal structure. The display panel provided by the embodiments of the present application can improve the uniformity of the overall display of the display panel.

Provided is an antireflective member capable of improving scratch resistance. An antireflective member having a low refractive index layer on an optically transmissive substrate, the low refractive index layer containing a binder resin and hollow particles, wherein the antireflective member satisfies the following condition 1. <condition 1> In a region of 5 μm×5 μm on a surface of the antireflective member on a side having the low refractive index layer with respect to the optically transmissive substrate, spatial frequency analysis of elevation is performed to calculate power spectrum intensity of elevation for each wavelength; when a sum of power spectrum intensity of elevation for each wavelength is calculated and the sum is normalized to 1, the power spectrum intensity P1 of elevation at a wavelength of 1.25 μm is 0.015 or more.

This invention relates to the field of photomask technology, and in particular to a photomask with an isolation layer. The photomask includes a base layer, a pattern layer on top of the base layer, and an isolation layer on top of the pattern layer. The isolation layer includes a silicon nitride film layer, a diamond carbon film layer bonded to the top of the silicon nitride film layer, and a silicon oxide reflective film layer bonded to the top of the diamond carbon film layer. This invention significantly improves the corrosion resistance and high-temperature resistance of the photomask, providing more comprehensive and reliable protection for the pattern layer. It effectively resists various corrosive factors in the process environment, extends the service life of the photomask, and reduces production costs. By setting the silicon oxide reflective film layer, it can achieve efficient anti-reflection for light within the wavelength range of the photolithography light source, greatly reducing reflection loss and interference during light transmission, allowing the pattern to be transferred more accurately onto the base layer, meeting the requirements of high-precision photolithography processes.

An antireflection film (10) has a transparent film base material (11), a hard coat layer (12), and an antireflection layer (13) in this order. The dimension change ratio in a first direction from before to after a heat resistance test of the antireflection film (10) is preferably -0.10% to 0.10%. The dimension change ratio in the first direction from before to after a moist heat resistance test of the antireflection film (10) is preferably 0.01% to 0.20%. The transparent film base material (11) is preferably a polyethylene terephthalate film.

A display device can include an anti-reflection pattern or a column spacer disposed between a light emitting diode and a bank layer, the anti-reflection pattern or column spacer including a blue colorant. The blue light reflected from the anti-reflection pattern or the column spacer is barely perceptible to the human eye, which helps reduce visible stains such as rainbow mura caused by external light reflection. Additionally, blue light emitted from the light emitting diode can pass through the anti-reflection pattern and / or the column spacer, thereby increasing the transmitted light intensity. As a result, image quality can be enhanced while minimizing luminance loss.

The present application provides a transparent laminate, an image display device, a double-sided anti-reflection laminate, and a transparent protective tool for a face. According to one embodiment of the present application, a transparent laminate (10) is provided, which is a transparent laminate (10) provided with a functional layer (12) and a low-refractive layer (13) having a refractive index lower than that of the functional layer (12), wherein a surface (13A) of the low-refractive layer (13) forms a surface (10A) of the transparent laminate (10), and when a fog resistance test is performed by placing the transparent laminate (10) in an environment of -15°C for 5 minutes, and then moving the transparent laminate (10) to an environment of 20°C or higher and 25°C or lower, and a relative humidity of 40% or higher and 70% or lower, for 5 minutes, the surface (10A) of the transparent laminate (10) does not fog, and an absolute value ΔY1 of a difference in light reflectance Y of the surface (10A) of the transparent laminate (10) before and after the fog resistance test is 0.2% or lower.

This invention relates to an organic composition for an anti-reflective film and an anti-reflective film comprising the same, and more specifically, to an organic composition for an anti-reflective film and an anti-reflective film comprising the same, which, in a lithography process, can achieve fine patterning by minimizing the light source reflectivity of the bottom anti-reflective coating (BARC), has excellent coatability, minimizes the generation of harmful substances and fume by improving thermal decomposition resistance, and exhibits high transparency.

Lens coatings and coated lenses which offer full-spectrum protection by reducing back-side reflection of all light spanning from the ultraviolet sub-band B (UVB) to infrared (IR-A) region are provided. The full-spectrum back-side anti-reflective coatings disclosed herein are comprised of multiple thin-film layers of high refractive index (HighIndex) and low refractive index (LowIndex) materials. In many embodiments, the penultimate layer distal from the substrate lens is a HighIndex layer, and the final layer distal from the substrate lens is a LowIndex layer.

A display cover plate and a method for manufacturing the same, a display module and a method for manufacturing the same, and a display device are provided. The display cover plate includes: an anti-reflection layer including an anti-reflection film and a first adhesive layer, at least a portion of the anti-reflection film having a curved-surface shape, and the first adhesive layer being located on a side of the convex surface of the anti-reflection film; and an injection layer having a curved-surface shape that matches with a curved-surface area of the anti-reflection film, a concave surface of the injection layer facing toward the first adhesive layer.

A display device includes a display panel including a display area, an anti-reflection layer disposed on the display panel and including a plurality of color filters, and an optical control module. The optical control module includes a first film layer including having a first optical axis corresponding to a stretching axis that extends in one a first direction and a phase difference layer disposed on the anti-reflection layer.

The present invention relates to an optical laminate and an antireflection film comprising the same, the optical laminate comprising a substrate, a first hard coat layer formed on at least one side of the substrate, and a second hard coat layer laminated on the first hard coat layer, the optical laminate having a transmittance of 91% or more at a wavelength of 905 nm and a transmittance of 90% or more at a wavelength of 550 nm, thus having a significantly higher transmittance than the 89% level at a wavelength of 905 nm that has been conventionally desired for use in laser radars, and an excellent transmittance at a wavelength of 550 nm, thereby enabling the production of a transparent high-sensitivity laser radar sensor.

We provide optical elements that also offer environmental durability. [Solution] An optical element comprising a base material, a resin layer provided on the surface of the base material with a diameter smaller than the diameter of the base material, an anti-reflective film layer covering at least the boundary between the base material and the resin layer, and a protective layer, wherein the anti-reflective film layer includes a porous layer containing particles of an inorganic compound, and the protective layer is provided on the boundary.

This invention provides an anti-reflective film with a surface protective film that can suppress color changes of the anti-reflective film when exposed to high temperature and high humidity environments. [Solution] The anti-reflective film 10 with a surface protective film comprises a transparent film substrate 11, an anti-reflective layer 20, an anti-fouling layer 12, and a surface protective film 13 in this order. The surface protective film 13 has a substrate layer 14 and an adhesive layer 15. The anti-fouling layer 12 and the adhesive layer 15 are in contact. The surface hardness of the main surface 15a of the adhesive layer 15 on the side of the anti-fouling layer 12 is 30 kPa or more and 2000 kPa or less. When light with a wavelength of 450 nm is incident on the main surface 12a of the anti-fouling layer 12 on the side of the adhesive layer 15, the reflectance of the light is 1.00% or less. The water contact angle of the main surface 12a of the anti-fouling layer 12 on the side of the adhesive layer 15 is 115° or more.

Laminated glazing (10) for head-up display comprising an outer glass sheet (12), an inner glass sheet (14), an adhesive intermediate lamination layer (16) disposed between the outer glass sheet (12) and the inner glass sheet (14), an anti-reflective coating (18), the anti-reflective coating (18) being deposited on an inner face (26) of the inner glass sheet (14) and a functional stack (72) configured to reflect p-polarized light (28), the functional stack (72) being deposited on an inner face (22) of the outer glass sheet (12) or on an outer face (24) of the inner glass sheet (14), the anti-reflective coating (18) comprising a first anti-reflective module comprising, from the inner face (26) of the inner glass sheet (14), a layer with a high refractive index and a layer with a low refractive index. Figure for the abstract: Fig. 1

The solar cell of the embodiment has a first transparent electrode, a p-type light absorbing layer provided on the first transparent electrode, a first n-type layer provided on the p-type light absorbing layer, a second n-type layer provided on the first n-type layer, a second transparent electrode provided on the second n-type layer, and an antireflection layer on the second transparent electrode. The refractive index of the second n-type layer is higher than the refractive index of the first n-type layer. The second n-type layer contains a metal oxide containing titanium.

This invention relates to the field of semiconductor technology, providing an anti-reflection light system and a laser annealing device. The anti-reflection light system combines an optical modulation component, a polarization beam splitter, and a first polarization state conversion element. This allows reflected light from the target object's surface to be received by a reflected light receiver, effectively preventing the reflected light from being reflected back to the light source and avoiding damage. This significantly reduces costs and facilitates the mass production of precision semiconductor processing equipment. Furthermore, this system eliminates the need to tilt the optical path spindle or the target object surface, resulting in a better final spot morphology, symmetry, and significantly improved spot uniformity. This, in turn, enhances the quality of the shaped spot, improves laser processing precision, and is beneficial for the application of high-precision laser equipment.

Systems and methods are disclosed for providing and using an anti-reflection device (ARD) to reduce light reflections in an optical device, such as a telescope, binocular, rifle scope, lens, or other optical device. The ARD preferably comprises a lattice conformed to the shape of the optical device with which it will be used, a wall or walls arranged about the perimeter of the lattice to assist with engagement with the lens, housing, and / or other features of the optical device, and at least one clip attached to the wall or walls to assist with secure attachment of the ARD to the optical device. In many embodiments, it will be preferable to employ a lattice comprising at least a portion that is a tessellating pattern, and often convex hexagonal tessellating patterns can be desirable because such shapes offer a larger ratio of viewing area to walls than many other tessellating shapes.

Provided are a compound represented by specific Chemical Formula, an antireflection film including the same and a display device including the antireflection film.

A substrate processing device according to an embodiment comprises: a process chamber having a processing space including a plurality of process areas and a separation area formed between the plurality of process areas; a gas injection unit including a first injection unit for injecting process gas into the process area and a second injection unit for injecting separation gas into the separation area; and a substrate support unit formed in a structure rotatable in the process chamber, the support plate having a mounting groove formed therein for each of the plurality of substrates to be mounted thereon and a driving shaft; wherein the mounting plate has a structure including an anti-reflection unit formed at a position corresponding to the second injection unit to prevent the separation gas injected by the second injection unit from being diffusely reflected to the upper surface.

To provide an antireflection member having low reflectance and improved excoriation resistance, and an image display device including the antireflection member.SOLUTION: An antireflection member 100 includes a low reflective index layer 130 on a transparent base material 110. The low refractive index layer 130 contains a binder resin and silica particles 132 and 134. The ratio of a Si element attributed to the silica particles obtained by analyzing the surface region of the low refractive index layer 130 by X-ray photoelectron spectroscopy is 10.0 atomic% or more and 18.0 atomic% or less, and when the ratio of the Si element is converted to 100 atomic%, the ratio of the C element is 180 atomic% or more and 500 atomic% or less.SELECTED DRAWING: Figure 3

This invention relates to anti-reflective components, polarizers, image display devices, and anti-reflective articles using the aforementioned anti-reflective components, as well as a method for selecting anti-reflective components. An anti-reflective component capable of improving scratch resistance is provided. An anti-reflective component has a low-refractive-index layer comprising an adhesive resin and hollow particles on a light-transmitting substrate, and satisfies the following condition 1. <Condition 1> Using the aforementioned light-transmitting substrate as a reference, spatial frequency analysis of the elevation is performed in a 5μm × 5μm region on the surface of the anti-reflective component on the side having the aforementioned low-refractive-index layer, thereby calculating the power spectral intensity of the elevation at each wavelength. After calculating the sum of the power spectral intensities of the elevation at each wavelength, when the sum is normalized to 1, the power spectral intensity P1 of the elevation at a wavelength of 1.25μm shows 0.015 or higher.