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Mostafa Peysokhan, PhD

This comprehensive course offers a thorough exploration of Zemax Sequential Mode, providing participants with a systematic understanding of lens design, optical system analysis, and surface property management. Structured to align with real-world optical engineering needs, this course introduces foundational concepts before progressing to advanced design techniques, supported by a practical, hands-on approach.

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This comprehensive course offers a thorough exploration of Zemax Sequential Mode, providing participants with a systematic understanding of lens design, optical system analysis, and surface property management. Structured to align with real-world optical engineering needs, this course introduces foundational concepts before progressing to advanced design techniques, supported by a practical, hands-on approach.

The course begins with an in-depth examination of the Zemax environment, ensuring participants develop a strong understanding of the interface and its core functions. You will learn to navigate the Zemax workspace, set up optical systems, configure system data, and import lens prescriptions. Essential topics such as system explorers and the implementation of optical surfaces are covered in detail, along with methods for extracting and utilizing commercial lens specifications. Foundational techniques like thickness solves, paraxial focus, lens layout, and input ray setup provide the groundwork for building precise optical systems.

Moving beyond singlet lenses, the course introduces doublet lens design as a practical example. You will explore the concept of doublets, apply first-order equations to these systems, and import them into Zemax for analysis. Through this example, you will learn to evaluate the first-order properties of real lenses, including virtual image formation and key performance characteristics. This section provides an ideal bridge between theoretical optics and practical implementation.

In the Curvature Solves section, participants will develop the ability to control and optimize lens curvature using advanced tools. Topics include fixing and varying curvature values, effective focal length (EFFL), marginal ray angles, pick-up solves, and calculations for element power and F-number. Additionally, the course covers thickness solving, where you will study marginal ray height, edge thickness, positional constraints, and center of curvature considerations for precision lens systems.

The program further explores Material Solves, where you will learn how to model and substitute materials efficiently to achieve desired optical performance. In conjunction, the Clear Semi-Diameter section introduces automatic and maximum aperture settings to refine optical designs. Mastery of these tools will enable participants to solve complex lens challenges with confidence.

An essential part of the course focuses on the Lens Data Editor Toolbar, a powerful resource for fine-tuning optical elements. This section teaches how to automate lens updates, introduce tilt and decenter elements, add fold mirrors, reverse optical elements, and configure apertures. Participants will learn to implement double-pass configurations and other practical techniques critical to optical simulations.

The Surface Properties module delves into the visual and functional aspects of optical surfaces. Topics include surface coloring, opacity adjustments, row customization, and the creation of surface stops. Advanced surface tools such as “Ignore This Surface,” surface property drawing, aperture editing, and tilt/decenter configurations are also explored, ensuring participants gain full control over surface design.

The course culminates with Practical Examples, allowing participants to apply their knowledge through real-world lens systems. You will analyze and design both Triplet Lenses and Cook Triplets, following a step-by-step process of explanation and solution implementation in Zemax. These exercises solidify key concepts, reinforce problem-solving techniques, and prepare participants for independent design work. We also explore the design and analysis of the Maksutov Telescope, offering participants a deeper understanding of more complex optical systems and their integration in Zemax.

By the end of this course, participants will have gained mastery in setting up, designing, and analyzing optical systems within Zemax Sequential. This program is ideal for optical engineers, researchers, and professionals seeking to develop their expertise in Zemax and optical system design. Whether you are building singlet lenses, doublets, or complex optical assemblies, this course provides the tools and techniques needed to excel in optical engineering applications.

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What's inside

Learning objectives

  • Introduction to zemax sequential mode
  • Understanding zemax windows and basic operations
  • How to import lens systems into zemax
  • Importing lenses into zemax for simulations
  • Creating lens structures in zemax sequential
  • Calculating focal length using first-order equations
  • Understanding focal length (f)
  • Navigating the zemax user interface and tools
  • Understanding tilt/decenter parameters and their effects
  • Simulating complex optical paths with folding mirrors
  • Building and simulating the maksutov optical design
  • Importing surfaces and components from commercial lens data
  • System data
  • System explorer
  • Thickness solve in zemax
  • Applying first-order equations to doublet lenses
  • Curvature solves
  • Effective focal length (effl)
  • Edge thickness
  • Lens data editor toolbar
  • Maksutov telescope explanation
  • Show more
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Syllabus

Introduction
Instructor
Zemax environemnt
Navigating the Zemax Interface
Read more
Setting Up Optical Systems: System Data and Lens Prescriptions
System Explorer
Optical surfaces in Zemax
Exploring Commercial Websites for Lens Specifications
Importing Singlet into Zemax
Thickness Solve in Zemax
Paraxial Focus
Lens Layout
Input Rays
Simple example
What is a doublet ?
Applying First-Order Equations to Doublet Lenses
Import the doublet into Zemax
First order properties of a real lens
Virtual images
Curvature Solves
Fix & Variable
EFFL
Marginal Ray Angle
Pick up
Element Power
F Number
Marginal Ray Height
Edge Thickness
Position
Center of Curvature
Material Solves
Model
Substitute
Clear Semi-Diameter
Automatic, and maximum
Lens Data Editor Toolbar
Auto Update Mode
Tilt/Decenter Elements
Add Fold Mirror
Reverse Elements
Make Focal
Make Double Pass
Apertures
Surface Properties
Surface Color,Surface Opacity, Row Color
Make Surface Stop
Ignore This Surface
Draw (surface properties)
Aperture (surface properties)
Edit Aperture
Tilt/Decenter
Practical Examples
Exercise 1 : Explanation (Triplet lens)
Exercice 1 : Solution in Zemax (Triplet lens)
Exercise 2 : Explanation (Cook Triplet)
Exercise 2 : Solution (Cook Triplet)
Maksutov Telescope Explanation
Maksutov Telescope in Zemax
Bonus Session
Thanks

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Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Zemax Sequential Basics: How to Build Lens Systems with these activities:
Review Basic Optics Principles
Reinforce your understanding of fundamental optics concepts to better grasp the Zemax simulations and lens design principles covered in the course.
Show steps
  • Review textbook chapters on geometric optics.
  • Work through practice problems related to refraction and reflection.
  • Watch online videos explaining basic lens properties.
Read 'Lens Design Fundamentals' by Rudolf Kingslake
Gain a deeper understanding of lens design theory to improve your ability to interpret and optimize Zemax results.
View Melania on Amazon
Show steps
  • Read chapters on aberration theory and lens shapes.
  • Take notes on key concepts and equations.
  • Relate the concepts to Zemax's optimization tools.
Read 'Optical System Design' by Warren Smith
Gain a deeper understanding of optical design principles and techniques to enhance your ability to use Zemax effectively.
Show steps
  • Read chapters related to lens design and analysis.
  • Take notes on key concepts and equations.
  • Work through example problems in the book.
Four other activities
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Show all seven activities
Practice Zemax Singlet Lens Design
Reinforce your understanding of Zemax basics by designing and analyzing singlet lenses with varying parameters.
Show steps
  • Create a new lens system in Zemax.
  • Define the lens material and dimensions.
  • Optimize the lens for a specific focal length.
  • Analyze the lens performance using Zemax tools.
Document Zemax Design Workflow
Solidify your knowledge by creating a detailed guide on how to design a specific lens system in Zemax, including screenshots and explanations.
Show steps
  • Choose a lens system to document (e.g., doublet, triplet).
  • Design the lens system in Zemax, taking screenshots of each step.
  • Write a detailed explanation of each step, including the reasoning behind your choices.
  • Organize the screenshots and explanations into a coherent guide.
Follow Zemax Tutorials on Complex Systems
Expand your Zemax skills by following advanced tutorials on designing complex optical systems like telescopes or microscopes.
Show steps
  • Find Zemax tutorials on advanced optical systems.
  • Follow the tutorial step-by-step, replicating the design in Zemax.
  • Analyze the performance of the system and compare it to the tutorial results.
  • Experiment with different parameters to see how they affect the performance.
Design a Maksutov-Cassegrain Telescope in Zemax
Apply your Zemax skills to design a complete Maksutov-Cassegrain telescope system, from initial setup to final optimization.
Show steps
  • Research the design parameters of a Maksutov-Cassegrain telescope.
  • Set up the optical system in Zemax, including the corrector lens and primary/secondary mirrors.
  • Optimize the system for image quality and field of view.
  • Analyze the performance of the telescope using Zemax tools.

Career center

Learners who complete Zemax Sequential Basics: How to Build Lens Systems will develop knowledge and skills that may be useful to these careers:
Optical Engineer
An optical engineer designs, develops, and tests optical systems and components. This often involves using software like Zemax to simulate and optimize lens designs. This course dives deep into Zemax Sequential Mode, building a strong foundation in lens design and optical system analysis. You will also explore practical examples like designing Triplet Lenses and Cook Triplets, which are common projects for an optical engineer. The hands-on approach of this course directly helps you in optimizing optical performance which is something that optical engineers do regularly.
Lens Designer
A lens designer specializes in the creation and optimization of lenses and lens systems. The detailed exploration of Zemax Sequential Mode within this course provides the foundational skills needed for this role. The course offers practical examples of lens design, including singlet and doublet lenses. Moreover, the course explores curvature and material solves, essential for refining lens performance. Lens designers would benefit from the comprehensive approach to lens design, in addition to the use of design software.
Optical System Designer
An optical system designer is responsible for designing and developing complete optical systems, from concept to prototype. This course provides a systematic understanding of lens design, optical system analysis, and surface property management, all critical skills for this type of designer. Furthermore, you will gain experience in setting up optical systems, configuring system data, and utilizing the Lens Data Editor Toolbar to fine-tune optical elements. By exploring practical examples like the Maksutov Telescope, the course may help prepare you for designing complex optical systems.
Photonics Engineer
A photonics engineer works with devices that generate, detect, and manipulate light. This course may be useful because it may help equip you with the skills to design and analyze optical systems, a key aspect of photonics engineering. The course delves into setting up optical systems within Zemax, configuring system data, and implementing tilt and decenter elements, all useful for a photonics engineer. The course's approach to optical simulations provides a foundation for you.
Research Scientist
A research scientist in optics or photonics conducts research to advance the understanding and application of light. This course may be helpful because it teaches the use of Zemax to simulate and analyze optical systems, which can be valuable for research purposes. Specifically, the course's focus on optical surface properties and advanced surface tools like 'Ignore This Surface' may provide an advantage. Those in research roles require a strong analytical background, often including a Master's degree or PhD.
Optical Technician
An optical technician assists engineers in the fabrication, testing, and maintenance of optical components and systems. This course helps build a foundational understanding of lens design and optical system analysis. You will gain practical skills in setting up optical systems in Zemax, importing lens prescriptions, and utilizing tools like thickness solves. By understanding the principles taught in the course, optical technicians have the ability to do their job more efficiently.
Optical Test Engineer
An optical test engineer develops and implements test procedures for optical systems and components to ensure they meet performance specifications. This course may provide you with essential skills in understanding Zemax Sequential Mode, lens design, and system analysis. This course may also help you to interpret system data and analyze practical examples such as Triplet Lenses and Cook Triplets in Zemax.
Laser Engineer
A laser engineer designs, develops, and tests laser systems for various applications. This course may be useful as it focuses on optical system design and analysis, which is applicable to laser systems as well. The knowledge of Zemax Sequential Mode, coupled with the ability to simulate complex optical paths using folding mirrors, may be useful in this line of work. The practical examples, such as designing the Maksutov Telescope, may also be useful.
Imaging System Engineer
An imaging system engineer designs and develops imaging systems, such as those used in cameras, microscopes, and medical devices. This course may be helpful as it focuses on the design and analysis of optical systems, which are at the core of any imaging system. The course's coverage of surface properties and the Lens Data Editor Toolbar may also be useful.
Metrology Engineer
A metrology engineer is responsible for precise measurement and calibration of optical components and systems. This course covering Zemax Sequential Mode may be useful because it hones the knowledge of lens design, optical system analysis, and the effect of various optical parameters. Using the knowledge from this course, you may be able to understand the performance of optical components, particularly how different parameters such as curvature affect the behavior of lenses.
Optical Sales Engineer
An optical sales engineer is responsible for selling optical components, systems, and services to clients. This course may be useful due to the deep dive into the Zemax environment. Understanding system data or the implementation of surfaces would serve this career well. This hands-on approach may provide you with a greater knowledge of these systems, allowing for more fluent conversations.
Quality Control Engineer
A quality control engineer ensures that optical products meet required specifications and quality standards. This course, with its focus on lens design and optical system analysis, may be helpful to understand the intricacies of optical systems. You may find the section on surface properties to be especially helpful, which may allow for a more thorough inspection and understanding of imperfections. This role may require someone comfortable with the manufacturing process.
Product Manager
A product manager guides the development and launch of new optical products. This course may be useful due to its broad approach to lens systems. You may find the practical examples like the Triplet Lens analysis or the Maksutov Telescope to be helpful, allowing you to better guide design teams. Individuals with an understanding of the engineering design process are commonly sought for this project leadership role.
Application Engineer
An applications engineer works with customers to integrate optical products into their systems and solve technical issues. This course may be useful as the design and analysis of optical systems is covered. Understanding lens prescriptions and the effects of tilt may allow for a more thorough integration. This role may require a deep understanding of the science behind the engineering in order to better troubleshoot issues.
Science Communicator
A science communicator conveys scientific information to the public through various media. This course may be helpful to give a basis of understanding for optical systems. The knowledge to design and analyze systems might make the information given more accurate and in-depth. You may also gain a better understanding of the language and parameters of those in the field.

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Zemax Sequential Basics: How to Build Lens Systems.
Comprehensive resource on optical system design. It covers a wide range of topics, from basic principles to advanced techniques. It is particularly useful for understanding the theoretical underpinnings of Zemax and for exploring design trade-offs. This book is commonly used as a textbook in optical engineering courses.

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