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太阳镜自带滤镜效果-世界一秒变瑰丽

太阳镜自带滤镜效果世界一秒变瑰丽Forget rose-colored glasses. It's time to see the world through an Instagram filter. And thanks to a new start-up, you'll soon be able to do exactly that.忘掉玫红色的太阳镜吧，现在是时候通过Instagram的滤镜来看世界了。

多亏一家新兴公司的发明，你很快能看到这样一个更加瑰丽的世界。

The company, Tens, has launched an IndieGogo campaign to create tinted sunglasses that give the world a similar look to that of an Instagram photo or polaroid picture. Or as the company tells it, a "real life photo filter" that "lend[s] an uplifting tint to the world beyond the lens."这家名叫Tens的公司通过IndieGogo的融资活动，创造出一款有色太阳镜。

借助它来看世界时，效果会像Instagram上的照片或者宝丽莱图片一般。

或者，借这家公司的话来说就是“给真实世界加上照片滤镜效果”，即“通过镜片，为世界增添一抹令人心动的色彩”。

This picture shows how the Tens' lenses would transform a normal scene into an Instagram-like wonderland (or over-saturated headache, depending on your opinion).上图显示了普通的景致通过Tens牌镜片所转变成的Instagram那样仙境般的效果(或者是色彩过渡饱和而让人头痛的效果，这取决于你怎么看了)。

隐形眼镜的发明作文

隐形眼镜的发明作文英文回答：The invention of contact lenses revolutionized the way people with vision problems see the world. Contact lenses are small, thin, and curved discs that are placed directly on the surface of the eye to correct vision. They are a convenient and comfortable alternative to traditional eyeglasses.Contact lenses were first invented in the late 19th century by a German ophthalmologist named Adolf Fick. However, it was not until the 1960s that contact lenses became widely available and popular. The first contact lenses were made of glass, which made them uncomfortable to wear and prone to breakage. But with advancements in technology, contact lenses are now made of soft, flexible materials that allow for better comfort and breathability.One of the main advantages of contact lenses is theirability to provide a wider field of vision compared to eyeglasses. Unlike glasses, which can obstruct peripheral vision, contact lenses sit directly on the eye, providing a more natural and unobstructed view. This is especially beneficial for athletes and those who lead an active lifestyle.Another advantage of contact lenses is their cosmetic appeal. Many people prefer contact lenses over glasses because they do not alter their appearance. Contact lenses are virtually invisible, allowing wearers to maintain their natural look. Additionally, contact lenses can be used to change the color of the eyes, enhancing one's overall appearance.Furthermore, contact lenses offer convenience and freedom. Unlike glasses, which can easily get lost or broken, contact lenses are worn directly on the eye, eliminating the need to constantly adjust or clean them. Contact lenses also do not fog up in cold weather or get wet in the rain, making them a more practical choice for outdoor activities.In conclusion, the invention of contact lenses has greatly improved the lives of people with vision problems. They provide better vision, are more comfortable to wear, and offer greater convenience and freedom. Whether forvision correction or cosmetic purposes, contact lenses have become an indispensable tool for many individuals.中文回答：隐形眼镜的发明彻底改变了视力问题患者看世界的方式。

光学显微镜英语作文

光学显微镜英语作文Title: The Marvels of the Optical Microscope。

The optical microscope, a marvel of scientific ingenuity, has revolutionized our understanding of the microscopic world. Its development, spanning centuries, represents a fusion of optical principles, engineering prowess, and scientific curiosity. In this essay, we delve into the intricate workings of the optical microscope, its historical significance, contemporary applications, and the profound impact it has had on various fields of study.Historical Evolution:The origins of the optical microscope can be traced back to the late 16th century, with the pioneering work of Dutch spectacle makers such as Hans Jansen and his son Zacharias. Their invention of the compound microscope laid the foundation for subsequent advancements in microscopy. However, it was Antony van Leeuwenhoek, a Dutch tradesmanand amateur scientist, who made significant strides in improving the design and magnification capabilities of the microscope. His observations of microorganisms through simple microscopes opened new frontiers in biology and medicine.Throughout the following centuries, the optical microscope underwent numerous refinements and enhancements, propelled by the contributions of notable scientists and inventors. The development of achromatic lenses in the 18th century by John Dollond mitigated color aberrations, vastly improving image clarity. In the 19th century, the introduction of the condenser and objective lenses with higher numerical apertures further enhanced resolution and contrast, enabling the visualization of finer details.Working Principles:At its core, the optical microscope operates on the principles of optics and magnification. Light from a source, typically an adjustable condenser, passes through the specimen mounted on a slide. The objective lens, positionedbeneath the specimen, magnifies the image formed by the transmitted light. This magnified image is then further enlarged by the eyepiece, allowing for visual observationor photographic documentation.Key factors influencing the performance of an optical microscope include magnification, resolution, and contrast. Magnification refers to the degree of enlargement of the specimen, while resolution determines the level of detail that can be discerned. Contrast, on the other hand, influences the clarity and visibility of structures within the specimen. By optimizing these parameters, researchers can obtain clear and detailed images for analysis.Contemporary Applications:The optical microscope remains an indispensable tool in various scientific disciplines, including biology, medicine, materials science, and forensics. In biology, itfacilitates the study of cellular structures, tissues, and microorganisms, elucidating fundamental processes of life. Medical professionals rely on microscopes for the diagnosisof diseases, analysis of blood samples, and examination of pathological tissues.In materials science, optical microscopy enables the characterization of materials at the microstructural level, aiding in the development of new materials and quality control processes. Forensic scientists utilize microscopes to examine trace evidence such as fibers, hairs, and fingerprints, assisting in criminal investigations andlegal proceedings.Impact and Future Prospects:The impact of the optical microscope on scientific advancement cannot be overstated. It has played a pivotal role in unraveling the mysteries of the microscopic realm, leading to groundbreaking discoveries and technological innovations. From the elucidation of cell biology to the development of life-saving medical treatments, its contributions are immeasurable.Looking ahead, advancements in microscopy technologycontinue to push the boundaries of what is possible. Emerging techniques such as confocal microscopy, fluorescence microscopy, and super-resolution microscopy offer unprecedented capabilities for imaging and analysis at the nanoscale. These advancements hold promise for further insights into complex biological processes, the development of novel therapeutics, and the exploration of new frontiers in science and technology.In conclusion, the optical microscope stands as a testament to human curiosity, ingenuity, and the relentless pursuit of knowledge. From its humble beginnings to its contemporary applications, it remains a cornerstone of scientific inquiry and discovery. As we venture into the future, the optical microscope will undoubtedly remain an indispensable tool in our quest to unlock the mysteries of the microscopic world.。

眼视光专业英语-Glasses

better vision correction > poly...
3. What are the types of lenses?
High index plastic lense
require strong prescriptions lighter and thinner no “coke bottle ” anymore
3. What are the types of lenses?
Photochromic lenses
tinted when exposed to sunlight
no need for prescription sunglasses
3. What are the types of lenses?
Polarized sunglasses
reducing reflected sun glare may cause LCD appear
invisible
4. Care for Eyeglasses
Home Task
remember the words and phrases read the text finish the exercise after the unit
3. What are teric lenses
spherical in shape differing degrees of curvature thinner and flatter > standard
lenses larger usable portion
Contents
What are glasses? Types of Glasses Types of Modern lenses Dialogues

光学镜头术语中英文对照

透镜系列术语中英文对照单透镜Simple (Single) Lenses球透镜Ball Lenses歪像透镜Anamorphic Lenses圆锥透镜Conical Lenses柱状透镜，环形透镜Cylindrical & Toroidal Lenses非球面透镜Aspheric Lenses反射折射透镜Catadioptric Lenses绕射极限透镜Diffraction-Limited LensesGRIN透镜GRIN Lenses (Graduated Refractive Index Rod)微小透镜阵列Micro Lens Arrays准直透镜Collimator Lenses聚光透镜Condenser Lenses多影像透镜Multiple Image Lenses傅利叶透镜Fourier Lenses菲涅尔透镜Fresnel Lenses替续透镜Relay Lenses大口径透镜(直径150mm以上) Large Aperture Lenses (150mm) 复合透镜Complex Lenses红外线透镜Infrared Lenses紫外线透镜Ultraviolet Lenses激光透镜Laser Lenses望远镜对物镜Telescope Objectives Lenses显微镜对物镜Microscope Objectives Lenses接目镜Eyepieces Lenses向场透镜Field Lenses望远镜头Telephoto Lenses广角镜头Wide Angle Lenses可变焦伸缩镜头Variable Focal Length Zoom LensesCCTV镜头CCTV Lenses影印机镜头Copy Machine Lenses传真机镜头Facsimile Lenses条码扫描器镜头Bar Code Scanner Lenses影像扫描器镜头Image Scanner Lenses光碟机读取头透镜Pick-up Head LensesAPS相机镜头APS Camera Lenses数位相机镜头Digital Still Camera Lenses液晶投影机镜头Liquid Crystal Projector Lenses镜面系列术语中英文对照平面镜Flat Mirrors球面凹面镜，球面凸面镜Spherical Concave and Convex Mirrors 抛物面镜，椭圆面镜Off-Axis Paraboloids and Ellipsoids Mirrors 非球面镜Aspheric Mirrors多面镜Polygonal Mirrors热镜Hot Mirrors冷镜Cold Mirrors玻璃，玻璃/陶瓷面镜Glass and Glass-Ceramic Mirrors双色向面镜Dichroic Mirror金属面镜Metal Mirrors多层面镜Multilayer Mirrors半涂银面镜Half-Silvered Mirrors激光面镜Laser Mirrors天文用面镜Astronomical Mirrors棱镜系列术语中英文对照Nicol棱镜Nicol PrismsGlan-Thomson棱镜Glan-Thomson PrismsWollaston棱镜Wollaston PrismsRochon棱镜Rochon Prisms直角棱镜Right-Angle; Rectangular Prisms五面棱镜Pentagonal Prisms脊角棱镜Roof Prisms双棱镜Biprisms直视棱镜Direct Vision Prisms微小棱镜Micro Prisms滤光镜系列术语中英文对照尖锐滤光镜Sharp Cut (off) Filters色温变换滤光镜，日光滤光镜Colour Conversion/Daylight Filters 干涉滤光镜Interference Filters中性密度滤光镜Neutral Density Filters空间/光学匹配滤光镜Spatial/Optical Matched Filters双色向滤光镜Dichroic Filters偏光滤光镜Polarizing Filters排除频带滤光镜Rejection Band Filters可调式滤光镜Turnable Filter超窄频滤光镜Ultra Narrowband Filters色吸收滤光镜Absorption Filters红外吸收/反射滤光镜Infrared Absorbing/Reflecting Filters红外透过滤光镜Infrared Transmitting Filters紫外吸收滤光镜Ultraviolet Absorbing Filters紫外透过滤光镜Ultraviolet Transmitting Filters针孔滤光镜Pinhole Filters有色玻璃滤光镜Colored-Glass Filters塑胶滤光镜Plastic Filters照像用滤光镜Photographic Filters全像滤光镜Holographic Filters微小干涉滤光镜Micro Interference Filters。

雪镜技术特性Giro镜片透光率

Optimized Lens Tints优质彩色镜片Night夜晚Clear (90% VLT*)A very high quality clear lens for use atnight or in extreme low light conditions.透明（90%透光率）非常高清晰的镜片适合夜间或者极低光环境下使用。

Overcast / Storm阴天/风雪Persimmon Blaze (50% VLT*)Our performance-tuned proprietarypersimmon tint, now with a fiery scarletflash coating to heighten detail andcontrast in low-light conditions.柿子色火焰（50%透光率）我们针对柿子色进行性能微调的专利镜片，现在加上了火红闪光的镀膜，在弱光条件下增强细节和对比度。

Persimmon Boost (52% VLT*)A proprietary tint with multi-layer flashcoating that heightens detail and depthperception in low light conditions. This is agreat storm tint.柿子色推进器（52透光率）拥有多层闪光镀膜的专利色彩镜片，增强弱光下的细节和深度知觉。

这是一片优异的风雪镜片。

Persimmon 57 (57% VLT)A performance tint that heightensdetail and contrast when light is flat.柿子色57（57%透光率）一款高性能色彩镜片，在光线平淡的情况下增强细节和对比度。

Mixed CloudsAmber Scarlet 40 (40% VLT)A high-performance amber base tint withmulti-layer flash coating that heightensdetail and depth perception in variablelight conditions.多云琥珀红40 （40%透光率）高性能琥珀基底镜片加上多层闪光镀膜，在变换的光线条件下增强细节和对比度。

眼视光专业英语Glasses ppt课件

invisible
Technical English For Optometric Students
4. Care for Eyeglasses
clean & dry place away from potential damage
clean with water & a non-lint cloth check eye prescription annually routine eye exams
Technical English For Optometric Students
Words and Phrases
aesthetic [i:sˈθetɪk] adj. 审美的n. 美学标准，美感；审美观 aspheric lenses [æz'ferɪk] n. 非球面镜片 curvature [ˈkɜ:vətʃə(r)] n. 弯曲；曲率；曲度 dashboard[ˈdæʃbɔ:d] n. 仪表板；挡泥板 photochromic lenses [fəʊtə'krəʊmɪk] n. 光致变色镜片 polarized sunglasses['pəʊləraɪzd] n. 偏光太阳镜 polycarbonate lenses [ˌpɒliˈkɑ:bənət] n. 聚碳酸酯镜片 safety glasses [ˈseifti ˈglɑ:sɪz] 安全眼镜 stereoscopy [ˌsterɪ'ɒskəpɪ] n. 立体视法，立体镜学 tinted [tɪntɪd] adj. 带色彩的 trivex lenses [ˈtrɪvɪt] n. 高级氨基甲酸乙酯聚合物镜片 ultraviolet [ˌʌltrəˈvaɪələt] adj. 紫外线的n. 紫外线辐射；紫外光

Synopsys CODE V optical design software说明书

CODE V Optical Design Software Design, Optimize and Fabricate Reliable Imaging OpticsSynopsys’ Optical Solutions Group is one of the world’s leading developers of optical design and analysis tools, with CODE V®imaging design software, LightTools® illumination design software, LucidShape® products for automotive lighting design, and RSoft™ products for photonic and optical communication design. The group is also an independent supplier of optical systems design services, with more than 4,800 completed projects in imaging, illumination and optical systems engineering.Since its worldwide introduction in 1975, CODE V has been instrumental in the development of highly advanced optical systems, sometimes with profound effects on business and culture. It has been used in the development of revolutionary applications such as the compact disk player. CODE V algorithms are a keyand dominant technology in the design of the microlithographic lenses that permit the imaging of ultra-fine lines on computer chips—a necessary ingredient in the continuing improvement of computer speeds.CODE V software has contributed significantly to important technological advances across a wide spectrum of fields such as projection displays, medical instrumentation, advanced military technology and space exploration.Because of its established reputation for excellence and quality performance, CODE V is the software of choice when optics are critical to the success of a product or project.Exceptional Software SupportTechnical SupportWith CODE V, you get much more than the highest-rated optical design and analysis software available. You also get access to more than 50 person-years of optical engineering experience through our technical support staff. Whether you choose e-mail or our toll free phone number to request assistance, degreed optical engineering professionals are ready to answer your questions.Training, Documentation and Online ResourcesWe offer many options for learning CODE V. Attend classes at our Pasadena, California facility, attend classes offered worldwide by our international representatives, or schedule an onsite class at your facility that has been tailored to your needs. Complete, examples-based documentation and a dedicated customer website with video tutorials, FAQs, example models, macros, tips and training materials are also available to help you be successful with CODE V.OverviewUsing CODE V, our engineers played a key role in the design and implementation of all the primary null lenses used in the highly successful Hubble SpaceProgram UpdatesWe release extensive program updates approximately once ayear to add major new features. We also provide regular program updates with customer-requested enhancements. All software updates, ongoing technical support, and access to extensive content on our Customer Support Portal are included in our standard license.Pre-Tested and Pre-ApprovedOne of our most important strengths is the synergy between our optical engineering services and software development efforts. Our engineers provide ideas, guidance, testing and feedback for the development of CODE V . For example, expert tools based on unique algorithms developed by our engineers, such as Glass Expert and Asphere Expert, help automate the design process and save you time and effort. Most importantly, before you use the latest version of CODE V for engineering problem solving, you can be confident that the software has been put through its paces by a dedicated team of engineers working at the cutting edge of optical technology.Figure 1: CODE V utilizes a standard Windows ® user interface with many navigation and usability features.Navigation toolbarCommand window Status barNavigation toolbarStatus bar Command window Tabbed output windowsExtensive help capabilitiesLDM spreadsheet Customizable chartingApplicationsFrom the extreme UV to beyond the infrared and from consumer products to government hardware, CODE V will handle your optical imaging applications. CODE V’s state-of-the-art algorithms, user-friendly interface and intelligent defaults speed time to market and maximize the quality of your optical solution. Some applications and related CODE V features include:• Injection molded plastic lenses—environmental analysis and material tolerances• Grating spectrometers—wavelength dependent multi-configuration features• Digital camera lenses—tolerance and fabrication analysis features • High-NA lithography optics—polarization ray tracing • Reconnaissance lenses—glass optimization with partial dispersion control• Telescopes and other visual systems—true afocal modeling • Space-borne systems—environmental analysis • Laser scanning systems—diffraction beam propagation analysis• Infrared and UV systems—special material characterization • Telecommunication systems—fiber coupling efficiency computations• Segmented aperture systems—non-sequential ray tracing featuresView a gallery of CODE V applications at com/optical-solutions/codev/application-gallery.htmlApplications and DesignFigure 2: CODE V is the dominant software of choice to meet the stringent optimization, analysis and tolerancing demands of the integrated circuitmanufacturing industry.Figure 3: CODE V optimization delivers the best possible zoom lens designs. Global Synthesis is highly effective for zoom lenses and excellent chromatic correction is possible with powerful glass optimization. CODE Vincludes specialized features for zoom lens analysis that help youbuild the best lens, not just design one.Figure 4: Tilted and decentered reflective systems are easy to set up in CODE V. User-defined optimization constraints allow easy control of optical bundle and component clearances in off-axis reflective systems. CODE V optimized this “Before” system to this “After” system in a singleoptimization run in seconds on an Intel ®2.67 GHz dual-core PC.Figure 5: The winning design from the International Optical Design Conference “Camera in a Can” lens design contest was optimized using Global Synthesis. Synopsys optical engineers use Global Synthesis onevery applicable design project.Design OptimizationOptimization capabilities are often the most importantconsideration when choosing optical design software. CODE V’s award-winning, proprietary optimization algorithms are considered unsurpassed by industry leaders. Features include:• RMS blur, wavefront variance, MTF , fiber coupling efficiency and a fully user-defined error function• The Reduce Tolerance Sensitivity control (SAB) allows direct optimization of the as-built RMS wavefront error to reduce sensitivity of optical systems to manufacturing tolerances, improve as-built performance and minimize production costs • The best, most effective global optimization algorithm available • Step Optimization (STP) accelerates optimization convergence and navigates complicated solution spaces more effectively to find optical system solutions with smaller error functions compared to traditional damped-least-squares optimization • Intelligent optimization defaults and general constraints • Effective exact constraint handling• Support of weighted and penalty function constraint handling • Easy definition of user-defined constraints• Glass Expert and Asphere Expert that automatically choose the best set of glasses and optimal asphere locations• Significant feedback to allow you to confirm optimizationprogress and guide variable, constraint or optimization control changes if neededLike many optical design programs, CODE V’s local optimization (optimizing to find the local minimum of the error function) is based on damped least squares. However, several proprietary enhancements make CODE V’s optimization algorithm the most effective available. CODE V’s exact constraint handling, using Lagrange multipliers, separates control of constraints from the error function so that the error function optimization does not stall while attempting to hold heavily weighted constraints. You can develop the best solution—with the correct specifications—that fits the space available.CODE V’s intelligent optimization defaults work well for the vastmajority of systems, but can be overridden if desired. CODE V’s RMS blur, wavefront variance and MTF error functions cover the majority of applications, but you can also define you own merit function. CODE V offers smart defaults, with as little or as much control as you require and consistently yields the best designs. This efficiency results in more freedom to perform useful engineering work insteadof time-consuming tweaks of the error function.AnalysisCODE V’s analysis algorithms are recognized for their accuracy and speed, and match measurements of real-world hardware. Over tens of thousands of fabricated customer designs, more than 150 person-years of in-house engineering experience and thousands of daily development test cases assure the quality of CODE V performance predictions—even on the most complex optical systems.CODE V’s extensive suite of analysis capabilities include:• Many diagnostic evaluation options (for example, transverse ray aberration or OPD curves)• Many geometrical and diffraction-based image evaluation options (for example, spot diagrams and MTF)• Non-sequential ray tracing• Polarization ray tracing, including birefringent material modeling • General diffraction beam propagation • Partial coherence 1D and 2D image analysis • Fiber coupling efficiency • Illumination analysis• Thermal infrared narcissus analysis • 2D image simulationCODE V’s beam propagation analysis accurately predicts intensity, amplitude and phase characteristics of the diffracted optical beam anywhere in the optical system. Beam Synthesis Propagation(BSP), originally developed for NASA to solve the stringent accuracy challenges of the Terrestrial Planet Finder mission, sets an industry standard for accuracy, efficiency and ease of use. It uses a beamlet-based algorithm with proprietary enhancements designed to deliverextremely accurate and efficient modeling of diffracted wavefronts propagating through an optical system. BSP’s groundbreaking Pre-Analysis feature automatically recommends analysis settings based on your lens system and delivers an accurate answer in the shortest time possible.Partial coherence analysis can predict image structure of one- or two-dimensional objects based on fully coherent to fully incoherent illumination through an optical system. For photonic systems, fiber coupling efficiency of a diffraction image into a single mode fiber can be predicted, including the effects of misalignments and fiber tip cleavage angles.Analysis, Tolerancing and Fabrication SupportFor photonics systems, some useful CODE V features include gradient index materials, polarization ray Figure 6: Beam Synthesis Propagation’s beamlet-based wave propagation algorithm performs beam propagation analysis more accurately andefficiently than any other commercially available tool.Decompose initialCODE V is COM-enabled and can be used as a server application for other COM-enabled applications for specialized analysis tasks. CODE V’s Macro-PLUS is a powerful, yet easy-to-learn macro programming language with access to a broad range of lens constructional data and analysis output. It can greatly simplify repetitive tasks, and supports efficient generation of custom analysis, such as line and surface charts.Most CODE V analysis option inputs can be customized, butyou aren’t burdened with making all the choices. Intelligentinput defaults are provided in all options, based on our software knowledge of the computational algorithm and engineering knowledge about the appropriate defaults for real-world problems. You can have confidence in CODE V’s results. Tolerancing and Fabrication SupportCODE V is used to design optics destined for hardware and has many advanced capabilities to speed time to market and solve production problems before the design reaches manufacturing. You can be confident of delivering the best performing as-built optical design with minimized recurring and non-recurring costs. Features include:• Accurate and extremely fast tolerancing using CODE V’sproprietary wavefront differential algorithm• Optimization access to the fast wavefront differential algorithm for directly optimizing as-built RMS wavefront error• Singular Value Decomposition algorithm to determine the most effective compensator set• Interactive tolerancing spreadsheet to modify tolerance values and instantly see the effect on system performance andcompensator motion• Traditional finite differences and Monte Carlo tolerancingsupport• Interferogram interface for applying measured interferograms to the system model• Automatic system alignment optimization based on as-builtinterferogram analysis• CAD export using IGES, SAT and STEP file formats• Mechanical zoom lens CAM computation• Lens element weight and cost analysis (material andfabrication costs)CODE V’s sensitivity and inverse sensitivity (automatic error budgeting) tolerancing capabilities are based on measurable performance metrics such as RMS wavefront, MTF, distortion, Zernike wavefront coefficients and more. Multiple compensators can be declared and if desired, restricted to compensating subsets of tolerances. Boresight compensation can also be included. CODE V’s interferogram interface allows measured surface deformation or system wavefront data to be imported into CODE V and included as part of the lens model. CODE V’s alignment optimization is used to automatically guide the alignment of an as-built optical system using measured wavefront data. Whether your hardware is for the consumer, commercial or government markets, if you are planning to build your optical designs, then CODE V’s integrated design, analysis and fabrication support features make it the best optical software for the job.Figure 7: CODE V’s transverse ray aberration curves, pupil maps, spot diagrams, MTF curves and point spread function plots use advanced algorithms to ensure the most accurate results.Figure 8: A stellar interferometer showing interference fringes produced from separated apertures using non-sequential surface ray tracing anddiffraction analysis features.Comprehensive Features©2018 Synopsys, Inc. All rights reserved. Synopsys is a trademark of Synopsys, Inc. in the United States and other countries. A list of Synopsys trademarks is。

蔡司显微镜150年(翻译)

蔡司显微镜150年（翻译）蔡司, 显微镜, 翻译本帖最后由 protoplast 于 2008-12-30 19:48 编辑蔡司是显微镜领域的巨人，可以说蔡司的历史就是一部显微镜发展史。

为了普及显微镜知识，本人特此翻译“蔡司显微镜150周年纪念回顾”（来自zeiss官方网站）。

采取中英文对照。

后附原英文稿（内有图）。

A man of skill, experience andforesight卡尔蔡司-一个富有技能与经验的人，一个具有远见的人。

150 years, and the legend keepsgrowing拥有150年的辉煌历史，卡尔.蔡司将续写新的传奇Questions like these may be pointless, but they are nevertheless intriguing: Is a glass of champagne (to suit the occasion), with half of its contents sipped, half empty or half full? And does a 150th anniversary make its subject 150 years old or 150 years young?如何来描述你面前的半杯香槟？是已经喝掉一半了？还是说已经满了半杯了？这样的脑筋急转弯问题，尽管听起来有点无聊，但用在卡尔.蔡司身上似乎很有深意：150年的纪念是表明已经很老？还是刚刚开始？Well, it is all a matter of how you look at it. To be sure, with all the tradition, handed-down values and sound standards of quality involved, the 150-year-old cannot be denied a distinctmaturity. On the other hand, there is an undiminished, youthful vitality and an inexhaustibleurge for permanent innovation and improvement.这要看你如何看待。

【手册】高考英语一轮复习方案作业手册39Unit4Pygmalion含解析新人教版选修8

【关键字】手册课时作业(三十九) [选修8 Unit 4 Pygmalion](限时：35分钟)Ⅰ.单项填空1．We need to ________with them on the price of the house.A．compromise B．quarrelC．argue D．consult2．Poor as she was，she was eager for attention.Thus she had to think of borrowing some jewels to ________at the party.A．show up B．show outC．show in D．show off3．Whenever you are in trouble，don't hesitate________me for help.A．asking B．to askC．in asking D．to asking4．The attack by terrorists has been________by the entire world.A．condemned B．scoldedC．criticized D．blamed5．The house is surrounded by trees，so it is________at all.A．neglected B．ignoredC．noticed D．overlooked6．—What has made him so upset recently?—________alone to face a troublesome milk case.A．Left B．Being leftC．Having left D．To leave7．The Thinker，head in hand，resting his right arm on his left knee，gained its current title when________in Paris in 1890.A．exhibiting B．exhibitedC．was exhibited D．being exhibited8．The millionaire passed away, leaving his children with a large________．A．fortune B．luckC．money D．amount9．The government ________air quality in urban areas from levels one to five: excellent, fairly good, slightly polluted, poor and dangerous.A．classifies B．arrangesC．distributes D．divides10．The success of a government should be measured ________ the happiness of the people as well as the development of economy.A. in face ofB. in place ofC. in terms ofD. in honour of11．A small car is big enough for a family of three________you need more space for baggage.A．once B．in caseC．if D．unless12．—Why was the man condemned to death?—Because he passed himself ________ as the chairman and caused a great loss.A．away B．downC．off D．on13．—Darling，I didn't get promoted.—________！ There will be loads of other opportunities.A．Well done B．What a pityC．Cheer up D．All right14．________ in the cage for half a day，the bird became hungry.A．Being kept B．KeptC．Having been kept D．Have been kept15．I'm ________ good terms ________ Mary and she is my good friend.A．on；/ B．/；with C．on；with D．with；onⅡ.阅读理解AHave you dreamed of building your own machine? Do you wish you could invent something new? Here we look at a few British inventions of recent times.Adaptive glassesDo you wear glasses? If so，can you imagine life without them? In 1985，Joshua Silver，a professor at Oxford University，asked himself，“Can I invent a pair of glasses that could be changed by the wearer？”He designed two plastic lenses(透镜) that are filled with a special ing syringes(注射器) you change the liquid between the lenses until you can see clearly.The glasses are not beautiful but they are easy to use and cheap to make.The windup radioWhen you switch your TV on tonight，think about all those people without electricity.Thinking about this，Trevor Baylis came up with the idea of designing a radio that could be powered by hand.In common with Joshua Silver he wanted his invention to be cheap and easy to use.He wanted even the poorest people in developing countries，who don't have electricity and cannot afford batteries，to use it.The radio has a generator(发电机) which is powered by turning a handle.In 1996 it won the BBC Design Award for Best Product and Best Design.The Dyson vacuum(真空) cleanerIn many homes around the world you can see a cleaner that looks like a spaceship.This is the Dyson vacuum cleaner which uses something ca lled “cyclonic，separation” to separate the dirt.You do not need a bag for your cleaner and it does not get blocked so it is very practical.The idea came to Sir James Dyson after he kept having problems with his vacuum cleaner.He decided he could design a better oneand in 1993 he opened his own factory.The Dyson is now one of the bestselling cleaners in the UK and Dyson is believed to have earned over a billion pounds.The Zapata FlyboardHave you ever dreamed of zooming through the water and leaping in the air like a dolphin? Now you can thanks to a flyboard，built by water sports enthusiast Frank Zapata.With it you can dive back in the water and out again.It's possible to jump to incredible heights out of the water—over 30 feet.The basic flyboard model comes in at ￡4，200.So keep dreaming and inventing.One day you might get it right.16．Which might be the best title for the passage?A．Greatest Inventions B．Scientists' StoriesC．Magic Glasses D．Beautiful Minds17．What can we learn about adaptive glasses?A．They are very expensive.B．The inventor is a student.C．The glasses are fragile.D．They don't look very nice.18．Which invention won an award?A．Adaptive glasses.B．The windup radio.C．The Dyson vacuum cleaner.D．The Zapata Flyboard.19．The Dyson vacuum cleaner was invented with the purpose of ________．A．helping people use cleaners more easilyB．making Dyson a rich businessmanC．keeping the house cleaner than beforeD．taking the place of human cleanersBCommuters(上下班往返的人) who drive to work will face a parking charge of up to ￡350 a year.Ministers are backing a workplace parking charge which will come into force in Nottingham in 2013 and is likely to be adopted across the country.The scheme will see firms with more than ten parking places for staff charged ￡ 350 a year for each space in two years.Employers would be free to pass on the charge to their staff－meaning it would effectively be a tax on driving to work.The scheme aims to reduce traffic by preventing unnecessary car journeys and raise funds to improve public transport，but critics say it is just an excuse for councils to fill their coffers(金库)．Some ten million Britons drive to work each day，and the British Chambers of Commerce says the new charge could total ￡ 3.4 billion a year if rolled out nationwide.Already some firms in Nottingham have threatened to leave the city，where 40，000 commuters use their cars to get to work.A spokesman said the scheme was nothing more than a tax on jobs.“It is very unfair to discriminate against those employers who have parking spaces，which get vehicles off the streets，” he said.“A nd thesecharges apply around the clock，which is especially unfair on shift workers who rely on their cars because public transport is not available.This is more about increasing the government's income than reducing traffic.”However，Transport Minister Sadiq Khan gave the plan an official approval during a visit to Nottingham.The council says the tax will raise as much as ￡100 million over ten years—one fifth of the cost of a new transport system for the city.Another transport spokesman Theresa Villiers said the tax would have a devastating impact on businesses struggling to cope with the economic decline.But Richard Hebditch of the Campaign for Better Transport said the tax would raise money to invest in better transport.“We put forward the idea of workplace parking taxes as a fairer way to raise money to invest in the future local transport services.We are pleased that the people of Nottingham will be the first to benefit.”20．Supporters argue that the scheme ________．A．can help improve the parking conditions for the staffB．should be applied to all commuters driving to workC．is certain to be carried out despite the objectionsD．will relieve traffic pressure and improve public transport21．According to the objectors，the scheme is unfair for ________．A．the firms with parking lotsB．the workforce without carsC．the employees parking their cars on the streetsD．the staff driving to work in the daytime22．Which word can best describe Theresa Villiers's attitude towards the scheme?A．Neutral. B．Negative.C．Understanding. D．Positive.23．It can he inferred from the passage that ________．A．many firms are willing to pay the charges for their staffB．the public transport in Nottingham is in great need of improvementC．the author believes Britons will benefit from the schemeD．those firms with more commuters will leave Nottingham参考答案课时作业(三十九)Ⅰ.1.A 考查动词辨析。

光刻技术简介

Photolithography is at the Center of the Wafer Fabrication Process
Thin Films
Polish
Patterned wafer
Diffusion
Photo
Etch
Test/Sort
Implant
*
4
What else is Photolithography?
The ability to print smaller and denser patterns by photolithography mainly depends on the optical characteristics by the optical system used in the process. Other factors such as photoresist are also critical.
2
Outline
¾ Introduction ¾ Basic photolithography concept ¾ Lithography process technology ¾ Litho metrology and Monitors ¾ Process flow through Litho ¾ Way to future?
3
Introduction
This session provides an overview of the Lithography (Litho) functional area. More detailed reference material is listed at the end of this presentation for those who wish to read further. Intent

雪镜技术特性Giro镜片透光率

这是一片优异的风雪镜片。

光电专业英语单词知识讲解

光电专业英语单词专英单词Chapter 1 Geometrical Optics1.1 Models of light: Rays and Waves 1.2 Reflection and Refraction1.3 Total internal Reflection 1.4 Thin lenses1.5 Locating Images by Ray Tracing 1.6 Thin Lens Equation1.7 Spherical Mirrors 1.8 lens Aberrationelectromagnetic spectrum 电磁波谱 parallel ray 平行光线reflection 反射 refraction 折射 incident beam 入射光束outgoing ray 出射光束 the angle of reflection 反射角specular reflection 镜面反射 diffuse reflection 漫反射optically denser medium 光密媒质 optically thinner medium 光疏媒质transparent medium 透明介质 prism 棱镜 index of refraction 折射率positive lens 正透镜 negative lens 负透镜 optical axis 光轴optical instument 光学仪器 focal point 焦点 curvature 曲率paraxial approximation 傍轴近似 achromatic lens 消色差透镜object distance 物距 image distance 像距 focal length 焦距the lateral of linear magnification 横向放大率 spherical mirror 球面镜curved mirror 曲面镜 concave mirror 凹面镜 convex mirror 凸面镜spherical aberration 球差 coma / coma aberration 彗差field curvature 场曲 distortion 畸变 chromatic aberration 色差focusing mirror 聚焦面镜 objective lens 物镜 aspherics 非球面镜Chapter 2 Wave Optics2.1 Huygens’ Principle 2.2 Reflection and Refraction of Light Waves2.3 Interference of Light 2.4 Interference of Thin Films2.5 Diffraction by a Single Slit 2.6 Multiple-Slit Diffraction and Gratings2.7 Resolution and the Rayleigh Criterion 2.8 Dispersion2.9 Spectroscopes and Spectra 2.10 Polarization 2.11 Scatteringwave crest 波峰 wave trough 波谷 wave surface /wavefront 波阵面constructive interference 相长干涉 destructive interference 相消干涉diffraction grating 衍射光栅 spectrometer 分光计 polarization 偏振Rayleigh scattering 瑞利散射 optical activity 旋光性 aperture 孔径half wave loss 半波损失 fringes of equal inclination 等倾条纹fringes of equal thickness 等厚条纹 diffraction grating 衍射光栅multiple-beam interference 多光束干涉 resolution 分辨率wavefront splitting interference 分波前干涉 diffraction aperture 衍射孔径amplitude splitting interference 分振幅干 wave velocity 波速spectroscope 分光镜 longitudinal wave 纵波 transverse wave 横波Chapter 3 Optical Instruments3.1 The eye 3.2 The Magnifying Glass3.3 Cameras and Projectors 3.4 Compound Microscopes3.5 Telescope 3.6 Other lensesPupil 瞳孔 Cornea 角膜 Lens 晶状体 Retina 视网膜near point 近点 far point 远点 Astigmatism 散光Myopia nearsightedness 近视 hyperopia farsightedness 远视zoom lens 变焦透镜 varifocal lens 变焦距镜头 Magnifying glass 放大镜Chapter 4 Principles of Lasers4.1 Laser Principle 4.2 Types of Lasers4.3 Control of The Laser Outputtransition 跃迁 spontaneous emission 自发辐射 excited state 激发态stimulated emission 受激辐射 ground state 基态LASER —Light Amplification by Stimulated Emission of Radiationresonant cavity 谐振腔 pumped light 泵浦光；抽运光population inversion 粒子数反转 population distribution 粒子数分布bandwidth 带宽 wavetrain 波列 gain 增益 etalon 标准具feedback 反馈 threshold 阈值 multimode 多模 ring resonator 环形谐振腔stable and unstable resonators 稳定腔和非稳腔 the confocal resonator 共焦腔Semiconductor Lasers 半导体激光器 Solid State Lasers 固体激光器Fiber laser 光纤激光器 Ion and Atomic Lasers 离子及原子激光器Excimer laser 准分子激光器 Electro-ionization Laser 电致电离激光器Plasma Laser 等离子体激光器4.2.1 Q-Switching4.2.2 Modulation of the Laser Output4.2.3 Mode Locking for Ultrashort PulsesQ switch Q 开关；调Q birefringence 双折射 isolator 隔离器piezo-electric crystal 压电晶体 quarter wave plate ¼ 波片harmonic wave 谐波 Acousto-optic modulation 声光调制Magneto-optic modulation 磁光调制 electro-optic modulation 电光调制SPM Self-phase Modulation 自相位调制PCM Pulse Code Modulation 脉冲编码调制active mode locking 主动锁模 passive mode locking 被动锁模4.3.1 Laser Manufacturing Technology 4.3.2 Laser Radar4.3.3 Lasers in MedicineLaser Welding 激光焊接 Laser Heat Treatment 激光热处理Laser Cutting 激光切割 Laser Marking 激光打标Laser Drilling 激光打孔 arc welding 电弧焊Laser Heat-Conduction Welding 激光热传导焊接Laser Deep Penetration Welding 激光深熔焊接laser cladding technology 激光熔覆技术Laser Texturing Technology 激光毛化技术Chapter 5.1 optical communicationcontinuous wave 连续波 transverse electric mode 横电模transverse magnetic mode 横磁模 core 纤芯 cladding 包层SBS stimulated Brillouin Scattering 受激布里渊散射SRS stimulated Raman scattering 受激拉曼散射Multimode Fiber 多模光纤 Single Mode Fiber 单模光纤SIOF Step-Index Optical Fiber 阶跃折射率分布光纤GIOF Graded-Index Optical Fiber 渐变折射率分布光纤GVD Group Velocity Dispersion 群速度色散PMD Polarisation Mode Dispersion 偏振模色散Waveguide dispersion 波导色散 Material dispersion 材料色散FDM frequency division multiplexing 频分复用TDM Time Division Multiplexing 时分复用WDM Wavelength Division Multiplexing 波分复用DWDM Dense Wavelength Division Multiplexing 密集波分复用LED light emitting diode 发光二极管LD laser diode 激光二极管APD Avalanche photo Diode 雪崩光电二极管OFA Optical Fiber Amplifier 光纤放大器SLA/SOA semiconductor laser/optical amplifier 半导体光放大器preamplifer 前置放大器 active component 有源器件 attenuator 衰减器Transmitter 发射机 low pass filter 低通滤波器 isolator 隔离器Optical Circulator 光环行器 Optical switch 光开关 Passive component 无源器件ADM Add Drop Multiplexer 分插复用器AWG arrayed-waveguide grating 阵列波导光栅Ethernet 以太网 Internet of Things 物联网AON Active Optical Network 有源光网络PON Passive Optical Network 无源光网络PDH Plesiochronous Digital Hierarchy 准同步数字体系SDH Synchronous Digital Hierarchy 同步数字传输体系Chapter 5.2 Holographyreconstruction 再现 development 显影photosensitive medium 感光介质 Optical Date Storage 光数据存储。

重庆市巴蜀中学2023-2024学年高二上学期期中英语试卷

高2025届高二(上) 半期考试英语试卷(命题人: 徐薇、孙小涵审题人: 杨静)注意事项:1. 答题前, 考生务必将自己的姓名、准考证号、班级、学校在答题卡上填写清楚。

2. 每小题选出答案后, 用2B铅笔把答题卡上对应题目的答案标号涂黑, 如需改动, 用橡皮擦干净后, 再选涂其他答案标号。

在试卷上作答无效。

3. 考试结束后, 请将答题卡交回, 试卷自行保存。

满分150分, 考试用时120分钟。

第I卷(选择题)第一部分听力(共两节, 满分20分)第一节(共5小题: 每小题1分, 满分5分)听下面5段对话。

每段对话后有一个小题, 从题中所给的A、B、C三个选项中选出最佳选项。

听完每段对话后, 你都有10秒钟的时间来回答有关小题和阅读下一小题。

每段对话仅读一遍。

1. What’s wrong with the woman’s foot?A. It’s broken.B. It has a skin disease.C. It got burned by hot oil.2. What was Sparky probably doing?A. Trying on a hat.B. Destroying a hat or a tie.C. Chewing on one of his toys.3. Where does the woman want to go?A. To the office.B. To the library.C. To the dining hall.4. Why did the woman start her business?A. To learn about dogs.B. To help her neighbors.C. To finish a research project for school.5. Where might the speakers be?A. On a bridge.B. At a movie theater.C. In a car.第二节(共15小题: 每小题1分, 满分15分)听下面5 段对话或独白。

投影光刻物镜倍率的公差分析与补偿_许伟才

摘要为满足严格的套刻需求，双远心结构的投影光刻物镜需要选择恰当的元件移动来进行倍率的补偿和调节。提出了一种简单而实用的方法来进行倍率的公差分析。该方法利用商业优化设计软件和有限差分算法计算了多项公差对物镜倍率的敏感程度，同时结合公差对系统波像差的敏感度选择最佳的倍率补偿元件。利用以上方法，对一台双远心、工作波长１９３ｎｍ以及数值孔径０．７５的投影光刻物镜进行了倍率的公差分析和补偿器优选。结果显示，系统较好地实现了 ±５０×１０－６的倍率调节功能，而系统波像差劣化程度均方根值小于１．５ｎｍ。关键词光学设计；倍率；公差分析；投影光刻物镜中图分类号ＴＨ７４文献标识码Ａｄｏｉ：１０．３７８８／ＡＯＳ２０１１３１．１１２２００３
针对以上两台光刻物镜的倍率调节要求，首先选择传统的倍率调节方式，即改变掩模面的位置进行模拟分析。利用商业光学设计软件（ＣｏｄｅＶ）和自定义宏命令，得到表２所示倍率调节结果。
收稿日期：２０１１－０５－０６；收到修改稿日期：２０１１－０６－０２基金项目：国家自然科学基金（４０９７４１１０７）资助课题。作者简介：许伟才（１９８４— ），男，博士研究生，主要从事深紫外光学系统设计方面的研究。Ｅ－ｍａｉｌ：ｘｕｗｅｉｃａｉｘｘ＠１６３．ｃｏｍ导师简介：黄玮（１９６５— ），男，博士，研究员，主要从事光学系统设计方面的研究。Ｅ－ｍａｉｌ：ｈｕａｎｇｗ＠ｃｉｏｍｐ．ａｃ．ｃｎ

折射率复数英语

折射率复数英语Refraction Index Complex EnglishThe concept of refraction index is a fundamental principle in the field of optics, which describes the way light behaves when it travels from one medium to another. The refraction index, also known as the index of refraction, is a dimensionless number that quantifies the degree to which the speed of light is reduced as it passes through a particular material. This phenomenon is crucial in understanding the behavior of light in various applications, such as in the design of optical devices, the analysis of light-based phenomena, and the study of the properties of materials.The refraction index is typically denoted by the symbol "n" and is defined as the ratio of the speed of light in a vacuum (c) to the speed of light in the medium (v). Mathematically, this can be expressed as n = c/v. The value of the refraction index is always greater than or equal to 1, with a value of 1 corresponding to the speed of light in a vacuum.When light travels from one medium to another, such as from air to water or from glass to air, the change in the speed of light results ina change in the direction of the light beam. This phenomenon is known as refraction, and it is governed by Snell's law, which states that the ratio of the sin e of the angle of incidence (θ1) to the sine of the angle of refraction (θ2) is equal to the ratio of the refraction indices of the two media (n1/n2).The refraction index can be a complex number, which means that it has both a real and an imaginary component. The real part of the refraction index, denoted as n, represents the degree to which the speed of light is reduced in the medium, while the imaginary part, denoted as k, represents the degree to which the light is absorbed or attenuated as it travels through the medium.The complex refraction index can be written as n + ik, where i is the imaginary unit (i^2 = -1). The real part, n, is often referred to as the refractive index, while the imaginary part, k, is known as the extinction coefficient.The complex refraction index is particularly important in the study of the optical properties of materials, as it can provide information about the absorption and dispersion of light within the material. This information is crucial in the design of various optical devices, such as lasers, optical fibers, and thin-film coatings.One of the key applications of the complex refraction index is in thestudy of the optical properties of materials in the field of photonics. Photonics is the study of the generation, manipulation, and detection of light, and it has a wide range of applications in fields such as telecommunications, imaging, and sensing.In the context of photonics, the complex refraction index is used to describe the propagation of light through various materials, such as semiconductors, dielectrics, and metals. The real part of the refraction index determines the phase velocity of the light, while the imaginary part determines the attenuation of the light as it travels through the material.The complex refraction index can also be used to analyze the reflectivity and transmissivity of light at the interface between two materials. This information is crucial in the design of optical devices, such as mirrors, lenses, and thin-film coatings, where the control of light propagation is essential.In addition to its applications in photonics, the complex refraction index is also important in the field of materials science. The complex refraction index can provide information about the electronic and atomic structure of materials, as well as their optical properties. This information can be used to study the fundamental properties of materials and to design new materials with desired optical characteristics.Overall, the concept of the complex refraction index is a crucial tool in the study of light and its interactions with matter. It has a wide range of applications in fields such as photonics, materials science, and optics, and continues to be an active area of research and development.。

光学镜片的发明流程

光学镜片的发明流程The invention of optical lenses has a long and fascinating history that dates back to ancient times. 光学镜片的发明源远流长，可以追溯到古代。

The idea of using curved pieces of glass to bend and focus light has been around for centuries, with early examples found in both ancient Egyptian and Roman civilizations. 早期使用弯曲玻璃片来弯曲和聚焦光线的概念已经存在几个世纪，早期的例子可以在古埃及和罗马文明中找到。

These early forms of lenses helped improve vision, magnify objects, and eventually paved the way for more complex optical devices. 这些早期的镜片形式帮助改善了视力，放大了物体，并最终为更复杂的光学设备铺平了道路。

Over time, advances in technology and scientific understanding led to the development of sophisticated lenses that are now essential in a wide range of applications, from eyeglasses to cameras to microscopes. 随着技术和科学理解的进步，人们研发出了复杂的镜片，在从眼镜到相机再到显微镜的各种应用中不可或缺。

One of the key figures in the history of optical lenses is the ancient Greek mathematician and inventor, Archimedes. 在光学镜片的历史上，一个重要的人物是古希腊数学家和发明家阿基米德。

用举例子的方式写纳米镜片的作文

用举例子的方式写纳米镜片的作文英文回答：Nano lenses are a revolutionary technology that has completely changed the way we see the world. These lenses are incredibly small, with the ability to magnify objects to an incredible degree. One example of a nano lens is the one used in smartphone cameras. These tiny lenses are able to capture high-quality images and videos, allowing us to document our lives in stunning detail.Another example of nano lenses is in the field of medicine. Doctors are now able to use nano lenses to see inside the human body with incredible precision. This has revolutionized the way we diagnose and treat illnesses, allowing for more accurate and effective treatments.Overall, nano lenses have opened up a whole new world of possibilities and have made our lives easier and more convenient in many ways.中文回答：纳米镜片是一种革命性的技术，彻底改变了我们看世界的方式。

发明白化病眼镜作文

发明白化病眼镜作文英文回答：Invention of Clear Vision Glasses.English Answer:The invention of clear vision glasses has revolutionized the way people with eye diseases or visual impairments see the world. These glasses have brought clarity and improved vision to millions of individuals, making their daily lives much easier.Clear vision glasses are designed with advanced technology that corrects various eye conditions, such as nearsightedness, farsightedness, and astigmatism. They are equipped with lenses that help focus light properly onto the retina, allowing for clearer and sharper vision. This innovation has eliminated the need for traditional eyeglasses that may be bulky and uncomfortable.Furthermore, clear vision glasses have become a fashion statement. With the rise of designer frames and stylish designs, individuals no longer have to compromise their style for better vision. These glasses have become a trendy accessory that not only enhances one's vision but also adds a touch of personal style.Moreover, clear vision glasses have improved thequality of life for many people. They allow individuals to engage in various activities such as reading, driving, and watching movies without any visual hindrance. People can now enjoy their hobbies and daily tasks with ease and confidence.In conclusion, the invention of clear vision glasses has changed the lives of millions of people worldwide. These glasses not only correct vision impairments but also provide a fashionable and comfortable solution. With clear vision glasses, individuals can see the world with clarity and style.中文回答：发明白化病眼镜。