Prototyping to Production

Similar documents
TECNOTTICA CONSONNI SRL CERTIFIED QUALITY MANAGEMENT SYSTEM COMPANY BY DNV UNI EN ISO 9001:2008

digital quality control fail pass at your fingertips Smart Metrology Solutions.

Efficiency, Dispersion and Straylight Performance Tests of Immersed Gratings for High Resolution Spectroscopy in the Near Infra-red

Optical Communications

Figure 1 Wafer with Notch

Specifying Plasma Deposited Hard Coated Optical Thin Film Filters. Alluxa Engineering Staff

waves rays Consider rays of light from an object being reflected by a plane mirror (the rays are diverging): mirror object

Application Report: Running µshape TM on a VF-20 Interferometer

DETECTION OF SUBSURFACE DAMAGE IN OPTICAL TRANSPARENT MATERIALSS USING SHORT COHERENCE TOMOGRAPHY. Rainer Boerret, Dominik Wiedemann, Andreas Kelm

Optical Standards. John Nichol BSc MSc

Molded Infrared Optics

Chapter 4 COATINGS Full Reflective Coatings:

Chapter 6 Metal Films and Filters

Laboratory #3 Guide: Optical and Electrical Properties of Transparent Conductors -- September 23, 2014

Reliance. Precision Limited. Electro-Mechanical, Opto-Mechanical Assemblies and Specialist Geared Components

* This work is an official contribution of the National Institute of Standards and Technology and

Choosing a Stencil. By William E. Coleman, Ph.D. and Michael R. Burgess

CHEMALUX 100OD SYSTEM. CHEMAT VISION - partner in vision care

Coating Technology: Evaporation Vs Sputtering

Polarization of Light

PHYS 222 Spring 2012 Final Exam. Closed books, notes, etc. No electronic device except a calculator.

Optical System Design

Plastic Film Texture Measurement With 3D Profilometry

3D TOPOGRAPHY & IMAGE OVERLAY OF PRINTED CIRCUIT BOARD ASSEMBLY

C) D) As object AB is moved from its present position toward the left, the size of the image produced A) decreases B) increases C) remains the same

2) A convex lens is known as a diverging lens and a concave lens is known as a converging lens. Answer: FALSE Diff: 1 Var: 1 Page Ref: Sec.

Advanced solutions for 5 pieces or 5,ooo,ooo pieces and everything in between. T E C H N O L O G I E S. High Volume Hydromat.

Shrinkage Modeling of Injection Molded Precision Optics

Spectroscopic Ellipsometry:

1. You stand two feet away from a plane mirror. How far is it from you to your image? a. 2.0 ft c. 4.0 ft b. 3.0 ft d. 5.0 ft

Applications. Blue IF 039, Green IF 062, Yellow IF 022, Orange IF 041, Red IF 090,Dark Red IF 091 IR pass IF 092, IF098, IF 093 Surface 1 5/2 0.

Optical laser beam scanner lens relay system

Laser Technology

SHIMS STAMPINGS MACHINED COMPONENTS

P R E A M B L E. Facilitated workshop problems for class discussion (1.5 hours)

AP Physics B Ch. 23 and Ch. 24 Geometric Optics and Wave Nature of Light

Industrial Metrology and Engineering Applications in the Wind Turbine Industry

A concise guide to Safety Glasses, the different standards and the effects of light on the eye. Contents. Links. Year of publication: 2010

Spectral Measurement Solutions for Industry and Research

Lapping and Polishing Basics

TIE-32: Thermal loads on optical glass

Industrial Manufacturing

Zero Width Glass Cutting with CO 2 Laser

PRECISION METAL STAMPINGS & ASSEMBLIES FOR THE MEDICAL DEVICE INDUSTRY

A CRITICAL NATIONAL NEED IDEA

An Introduction to the Design, Manufacture and Application of Plastic Optics

How to Build a Printed Circuit Board. Advanced Circuits Inc 2004

NOVEL FOCUSING OPTICS FOR IR LASERS Paper 1504

Forensic Science: The Basics. Microscopy

The Quality Connection. High Performance Cable Solutions for the World of Semiconductors

The Quality Connection. High Performance Cable Solutions for the World of Semiconductors

Fiber Optics: Fiber Basics

Fundamentals of modern UV-visible spectroscopy. Presentation Materials

WOOD WEAR TESTING USING TRIBOMETER

Making A Mirror Grinding Tool By Allen Malsburry

The CVD diamond booklet

Preface Light Microscopy X-ray Diffraction Methods

ARMSTRONG MOLD GRAPHITE DIE CASTING DIVISION

HEALTHCARE Single - Use Systems CONTRACT MANUFACTURING SOLUTIONS PARTNER

CASE STUDY: SCREEN PRINTING SOLUTIONS FOR SMALL DIE & PRECISION ALIGNMENT CHALLENGES

LBS-300 Beam Sampler for C-mount Cameras. YAG Focal Spot Analysis Adapter. User Notes

Faster Parts. Your Way. Xcentric Mold & Engineering. All rights reserved

Custom Vision Correction

LIGHT REFLECTION AND REFRACTION

Machine Tool Inspection & Analyzer solutions

Metrology of silicon photovoltaic cells using coherence correlation interferometry

How to make a Galileian Telescope

Development of High-Speed High-Precision Cooling Plate

The Layman's Guide to ANSI, CEN, and ISO Bar Code Print Quality Documents

The Basics of Scanning Electron Microscopy

Geometric Optics Converging Lenses and Mirrors Physics Lab IV

1 of 9 2/9/2010 3:38 PM

Largest Applicator The the Northeast TEL: of Coatings in

Encoders for Linear Motors in the Electronics Industry

EXPERIMENT O-6. Michelson Interferometer. Abstract. References. Pre-Lab

System Expertise for Machine Tools

Miniaturizing Flexible Circuits for use in Medical Electronics. Nate Kreutter 3M

3D Deformation Measurement with Akrometrix TherMoiré and Digital Fringe Projection

View of ΣIGMA TM (Ref. 1)

Design/Build and Equipment Integration

Wafer Placement Repeatibility and Robot Speed Improvements for Bonded Wafer Pairs Used in 3D Integration

Introduction to Optics

Corning HPFS 7979, 7980, 8655 Fused Silica. Optical Materials Product Information Specialty Materials Division

European bespoke wafer processing & development solutions for : Grinding, CMP, Edge Treatment, Wafer Bonding, Dicing and Cleaning

SpeedLight 2D. for efficient production of printed circuit boards

LEICA TRI-ELMAR-M mm f/4 ASPH. 1

Introduction to Manufacturing Process

Precision Optics. Spheroline SLG 301. Perfect grinding of larger optics

Welcome at the Kugler Group

Custom Optical Solutions A NAVITAR COMPANY

Sviluppo di componenti per sottosistemi ottici basati su ottiche elettroformate altamente asferiche per applicazioni Spazio e Difesa

PROVE, the next generation registration metrology tool, status report

Application Note #503 Comparing 3D Optical Microscopy Techniques for Metrology Applications

INFRARED PARTS MANUAL

Study Guide for Exam on Light

What is Solar Control?

LARGE MEASUREMENT RANGE MECHANICAL COMPARATOR FOR CALIBRATION OF LONG GAUGE BLOCKS

Reflectance Characteristics of Accuflect Light Reflecting Ceramic

Transcription:

White Paper Prototyping to Production Konrad Goffin David Montgomery Cicely Rathmell INTRODUCTION CVI Laser Optics quick turnaround prototype services smooth the transition from prototype to production. We start by understanding your application and needs, then back it with expert engineering knowledge and world-class manufacturing capabilities. By providing you with better technical support than you can find anywhere else, we help you optimize the price to performance ratio of your optics at the beginning of the product development cycle. Unparalleled Support The Benefits of Prototyping with CVI Laser Optics We see prototyping as an opportunity to provide the engineering support that is so essential to the success of a new product development. Our highly qualified technical sales team will walk you through prototyping, providing honest answers to the questions most relevant to your product development and timelines. Our application engineers will help you define which specs are most important, optimizing tradeoffs between competing specifications and balancing performance with cost. Armed with research and fabrication experience, they understand the full process through to testing and inspection. At CVI Laser Optics, we know how to design optics with volume manufacturability in mind, giving us an advantage that most prototype houses can t offer. Time- and Cost-Efficient As a full-service volume optical component supplier, we can accelerate your design to implementation cycle. The prototypes we provide are already designed with consideration to our volume production capabilities and quality yield metrics, allowing us to quote optical performance, volume costing and lead times with high confidence. Transition to volume production is supported and facilitated by the same engineers involved in prototyping. When a number of our customers told us they were turning to independent prototyping houses for cost or leadtime reasons, we listened. In response, we created our own prototyping lines capable of delivering the quality for which CVI Laser Optics is known at similar leadtimes, and often at lower cost! By offering you the same comprehensive design and engineering support at the prototype stage as we do for volume components, the cost-intensive step of re-testing and requalifying a new vendor for volume production can be avoided, cutting up to 4 weeks from your product development schedule.

Copy-Exact Option Many of our customers in the defense, semiconductor and medical device industries have copy-exact requirements, forcing them to requalify each time a vendor is changed. While this is often expected in going from prototype to production, it can be avoided through careful planning. If you have copy-exact requirements, we can adapt our prototyping process to meet those criteria from prototyping through to volume. Premium Performance As a world-class optical component supplier, we can offer higher performance specifications and more thin film coating options than most rapid prototyping lines or small optics companies. We guarantee this performance using state-of-the-art metrology, inspection, and environmental testing capabilities in our ISO 9001:2008 certified facilities. Whether you need laser grade or standard grade optics, or even an optical assembly, we have the performance you need at a competitive price and leadtime. Reduced Risk Transitioning from prototype to production with CVI Laser Optics reduces your risk in several ways. Not only do you avoid designing your product around performance that can only be delivered in small volumes or with poor yield, but you also gain a partner who is invested in the long-term success of your product from the beginning. Our prototyping line can help to fill the gap in supply often seen in the weeks between prototype and volume ramp, providing a steady flow of components with repeatable performance throughout your product development. Once in production, you have access to large capacity under one roof, supported by a global network of affiliates and suppliers. If we are unable to manufacture your components at our primary laser optic manufacturing facility in Albuquerque, we have access to manufacturing facilities spanning three continents to deliver a solution. 2 Prototyping to Production

The Prototyping Process: How it Works Your technical salesperson will be your point of contact all the way through the prototyping process, with support from application engineering. Together, they will determine how best to use the prototyping line to achieve the optical component you require long-term. Understand Needs Technical sales works with you to understand your application & needs Develop Specifications Application engineering optimizes specifications to meet both your short-term and long-term production needs Optical modeling of your component will be performed, as necessary Order is placed for prototype quantities, with signoff on drawing Deliver Prototypes AE works closely with production engineers in the prototyping line to ensure parts are made quickly and to agreed specifications AE facilitates transition to volume manufacturing line, with ongoing support Transfer to Production Specifications are finalized and inspection plans developed Product Types Our prototyping line can quickly create fully customized versions of many of our optical components. Both spherical lenses and flats can be provided with any of the CVI Laser Optics coatings. Limited assembly or additional testing is also available on an as-needed basis. We can build to print, or provide engineering design services to assist with design of optics, coatings and mounts. Spherical lenses: plano-convex, plano-concave, biconvex, biconcave, bestform Optical flats/windows: parallel, low-wedge, large wedge; round, square, or rectangular Beamsplitting cubes CVI Laser Optics 3

Stocked Materials An application engineer will work with you to identify the best material for your application, considering spectral requirements and design factors, as well as hardness, CTE (coefficient of thermal expansion), environmental resistance and cost. Our on-hand selection of crown glass, flint glass, and crystalline materials span the ultraviolet to near infrared, from 193 nm to 3000 nm. They include various refractive indices and dispersion options appropriate for pairing of glasses for doublets, as well as low expansion options. Material Index (at 633 nm) Manufacturing Capabilities Max Diameter 7980 1-D 1.457 3.0 7979 1-C 1.457 2.0 N-BK7 1.5151 3.0 CaF2 1.4329 1.0 N-SF5 1.66846 1.0 N-SF6 1.7988 1.0 N-SF11 1.7786 1.0 Zerodur 1.5403 1.0 At CVI Laser Optics, we re known for precision fabrication. From economical standard grade components to premium laser grade optics offering low surface defects and high surface figure, we manufacture, test and inspect every component to demanding specifications. We ve outfitted our prototyping line with many of the same high-end capabilities available on our production lines, including centering and shaping not available from most manufacturers. Automated High Speed Spherical Generator/Polishers With high speed spherical 5 axis CNC generation and polishing, we can create high quality optics with λ/10 surface figure and 10-5 surface quality. The same equipment also allows for competitive manufacturing of standard grade optics with λ/4 surface figure and 20-10 surface quality. This process is highly automated and repeatable, enabled by in-process metrology. Conventional/Pitch Polishing We employ more conventional polishing methods to achieve certain conformations or performance: Higher specifications: λ/20 surface figure, plano or spherical, as well as roughness considerations Generating/polishing combinations: spherical surfaces, block on spindle; also ideal for tighter specifications Double-sided polishing: well-suited to competitive, high capacity flats manufacturing; also ideal for waveplate production Centering and Shaping Our centering and shaping capabilities are industry-leading. We utilize a high speed automated spherical centering process that is very repeatable. Spherical centering of less than 30 arc seconds is achieved with ease, sometimes better (depending on material, curvature, etc.). In fact, we offer a unique ability to improve beam walk due to centration on laser grade optics using our Schneider etching tool. We can also produce creative edge shapes with micro scale precision using a highly automated, repeatable process. This allows us to create faucets or edge beveling so that mechanical and glass pieces can be better fit quickly, reducing your assembly time. 4 Prototyping to Production

Tech Note: PV vs RMS The surface figure (also known as surface quality) of an optic is an expression of the deviation of an optic from its ideal shape. It is an important metric, as it impacts aberrations and quality of focus. There are two methods by which surface figure is typically described: Peak to valley (PV) error: Calculated using the distance between the highest and lowest points on an optical surface, relative to the ideal surface. It does not quantify the number of defects, only compare those most extreme in amplitude. RMS (Root Mean Square) error: Calculated using the standard deviation of the optical surface relative to the ideal surface, using measurements from many points on the optic. It thus takes into account the number of defects, as well as their amplitude. In both cases, the actual number reported is twice the calculated value in nanometers, divided by the wavelength of light being used. Both values are most often reported at 633 nm. Two optics can have the same peak-to-valley amplitude, but a very different number and severity of defects. Which is better? Many optics manufacturers will argue that RMS error is a better indicator of surface quality, pointing out that a single, large defect on an optic can result in a high PV error, yet impact only a small fraction of the transmitted light. RMS error, in contrast, considers the number of defects as well as their sizes. When working with high-performance optics, however, a low PV measurement (i.e., λ/10) is a far more powerful indicator of surface quality than an equivalent RMS value. Why? Both measurements are performed using the same method interferometry and are calculated using hundreds of points across the optic s surface. The difference lies only in the calculation. The RMS value is a measure of the standard deviation from the ideal surface, while the PV value indicates the absolute difference from the ideal surface. Although RMS error provides a good overall average sense of surface quality, the mathematics of its calculation dictate that it will always be lower than the PV error for the same surface, typically by a factor of three to four. A λ/10 PV error specification is more difficult to meet when manufacturing optics than a λ/10 RMS error specification. Let s consider a few different scenarios in which PV and RMS are both reported, and consider what those values say about the surface and implications for use. CVI Laser Optics provides optics with both low PV error and very low RMS error to meet the needs of high power, laser and optically demanding applications. We provide our surface figure error values in PV simply because it is more difficult to meet, and it assures our customers of higher quality. CVI Laser Optics 5

PV RMS Surface Characteristics Recommended Use High Low Smooth, but with one to several large defects May be adequate for some applications, like astronomy optics Low High No large defects, but highly irregular May be adequate for low power or routine applications Low Low No large defects, very smooth Good optical performance for all applications; best for high power and sensitive systems How can we manufacture optics with such low PV and RMS error values simultaneously? Through carefully designed and controlled manufacturing processes. We remove material to shape the optics in different steps, progressing from a rough removal (milling), to fine removal (grinding), and then very fine removal (polishing) to minimize the sub-surface damage in the optical surface. Each step minimizes the peaks and valleys to ensure that we can create optics that are both consistently smooth across their surface, and also free of large defects. The result is less image distortion, and higher power handling. Thin Film Coating Drawing on a wide range of metal and dielectric coating technologies, we can coat any custom spherical lens or optical flat for use at wavelengths from the UV to NIR. Coating Technologies: advanced plasma source (APS), ion assisted deposition (IAD), electron beam (e-beam) deposition Coating Types: Anti-reflection, high reflector, polarizing, filter (longpass, shortpass, bandpass, blocking) Assembly Basic assembly capabilities are available at prototype quantities, including optically contacted or cemented optics, as well as optomechanical assemblies. An in-house machine shop allows for prototyping of some metal components, while assembly is performed in class 100 cleanrooms. This also enables us to provide cleanroom specific packaging and cleaning methods at prototype quantities. Quality Assurance Our metrology capabilities are extensive, and include a 12 Fizeau interferometer for measurement of large aperture optics. We assess surface quality using machine assisted surface quality inspection, with significantly brighter light sources and higher magnification than is required by the industry. We developed this inspection method to meet our customers laser induced damage requirements, underscoring our commitment to high performance laser optics. Full documentation can be provided, including AS9102 first article inspection reports. 6 Prototyping to Production

Environmental Testing & LDT The strong base of existing MIL and ISO standard testing data for our optical components allows you to prototype with the confidence that qualification of production quantities will be successful. In-house environmental testing can be supplemented as needed by sourced testing to meet all your requirements. We also have extensive experience with laser damage testing, both for bare optics and our full suite of thin film coatings. Summary Now at CVI Laser Optics, we can take your concept from prototype to production under one roof. Our prototyping line gives you access to comprehensive engineering support as you develop your product, and ensures the best price to performance ratio. Not only can we provide premium performance backed by world class metrology and coating capabilities, but we can pave the way for a seamless transition to volume. Contact us today to get started! 505-296-9541 cvilaseroptics.com CVI Laser Optics 7

CVI Laser, LLC 200 Dorado Place SE Albuquerque New Mexico 87123 cvilaseroptics@idexcorp.com cvilaseroptics.com Laser Optics Group Life Science Group Semiconductor Group DSS Group 2015 CVI Laser Optics 6/2015