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TECHSPEC® components are designed, specified, or manufactured by Edmund Optics. TECHSPEC® ブランドの製品は、エドモンド・オプティクスによってデザイン、規格化、あるいは製造されます。もっと詳しく

TS PlatinumTL テレセントリックレンズ 2/3型 0.28X C

0.28X Magnification, #62-933

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商品コード #62-933 5-7営業日
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¥209,100
数量 1+
¥209,100
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製品情報ダウンロード
フランジバック距離 (mm):
17.5

概要

マウントクランプの商品コード:
#63-442 Sold Separately
タイプ:
Telecentric Lens

物理的および機械的特性

アイリスオプション:
Variable
全長 (mm):
203.80
最大直径 (mm):
60.5
自重 (g):
736

光学的特性

水平方向実視野 @ 1/2型センサー:
22.9mm
水平方向実視野 @ 2/3型センサー:
31.8mm
最大イメージサークル (mm):
11.00
開口数 NA, 物体側:
0.023
素子の枚数 (群数):
10 (7)
テレセントリシティ @ 588nm (典型値) (°):
<0.030
典型ディストーション @ 588nm (%):
<0.006
光学倍率 PMAG:
0.28X
作動距離 (mm):
180.00
絞り範囲 (Fナンバー):
f/6 - f/22
コーティング:
425 - 675nm BBAR
被写界深度 (mm):
±6.9mm at f/10 (20% @ 20 lp/mm)
実視野 @ 最大センサーフォーマット, H x V (mm):
31.4 x 23.6
レンズ波長域:
VIS

センサー

許容最大センサーフォーマット:
2/3"

ねじ径 & 固定

フィルターマウント:
M58 x 0.75 (Female)
マウント:
C-Mount

法規制対応状況

RoHS 2011/65:
適合証明書:

製品群全体の紹介

  • 高解像力なF6デザインの計測用両側テレセントリックレンズ
  • 35 メガピクセル (2.8µmのピクセルサイズ) までに対応
  • APS-C対応のC, M42 or Fマウントレンズ
  • 0.28X から 1.7X までの倍率

TECHSPEC® PlatinumTL™ テレセントリックレンズは、半導体検査や電子部品検査、また計測やゲージアプリケーション用にデザインされています。その高精度なデザインは、高いテレセントリシティ (<0.1°)、低ディストーション (<0.1%)、および絞り全開時でF6を実現する絞り調節可能な高い光スループットを特徴とします。対角 28.7mmの大判フォーマットに対応する本レンズは、Sony IMX342 APS-C センサー、およびSony IMX530など他の小型フォーマットセンサーに対応します。TECHSPEC PlatinumTL テレセントリックレンズは、比類ない次元のコントラスト画像を作り、高度な計測精度で最大限の画質を生み出します。このレンズは、高振動環境に対応し、絞りを確実に固定する取り外し可能なセットスクリューを装備します。

タイトル 比較する商品コード  価格 (税別) カートに入れる
TS マウントクランプ (33.5mm 内径) #63-442 ¥43,850   見積依頼する
  • 5-7営業日
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#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Distortion Plot
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Distortion Plot
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Relative Illumination Plot
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Relative Illumination Plot
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Telecentricity Plot
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Telecentricity Plot
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Modulated Transfer Function (MTF) Plot, 180mm Working Distance, f6
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Modulated Transfer Function (MTF) Plot, 180mm Working Distance, f6
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Depth of Field Plot, 180mm Working Distance, f6
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Depth of Field Plot, 180mm Working Distance, f6
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Modulated Transfer Function (MTF) Plot, 180mm Working Distance, f10
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Modulated Transfer Function (MTF) Plot, 180mm Working Distance, f10
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Depth of Field Plot, 180mm Working Distance, f10
#62-933, 0.28X, 2/3" C-Mount PlatinumTL™ Telecentric Lens, Depth of Field Plot, 180mm Working Distance, f10

技術情報

 
Description Stock No. Flange Length (A) Front Diameter (B) Back Diameter (C)
0.28X C-Mount #62-933 17.5mm 230.8mm 60.5mm 33.5mm
0.5X C-Mount #62-932 17.5mm 174.9mm 50mm 33.5mm
1.7X C-Mount #63-232 17.5mm 189.5mm 60mm 46mm
0.28X F-Mount #62-922 46.5mm 167.6mm 138.6mm 55mm
M42 x 1.0 #62-923 6.56mm 208.5mm 138.6mm 50mm
M42 x 1.0 #62-924 19.53mm 195.5mm 138.6mm 50mm
0.5X F-Mount #62-912 46.5mm 143mm 90mm 55mm
M42 x 1.0 #62-913 6.56mm 184mm 90mm 50mm
M42 x 1.0 #62-914 19.53mm 171.1mm 90mm 50mm
0.9X F-Mount #62-902 46.5mm 170.8mm 65mm 55mm
M42 x 1.0 #62-903 6.56mm 210.7mm 65mm 53mm
M42 x 1.0 #62-904 19.53mm 197.8mm 65mm 53mm
Filter

反射防止コーティング

反射防止膜は、透過率を増やす、コントラストを高める、またゴースト像の発生を取り除くことによって、光学素子の効率を大幅に改善させます。

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オプティカルコーティング入門

Optical coatings are used to influence the transmission, reflection, or polarization properties of an optical component.

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Wavelength and f#

This demonstration exemplifies why wavelength and f/# can drastically affect the performance of imaging systems and should not be overlooked.

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Working Distance and Focal Length Basics

Working distance and focal length are two of the most fundamental parameters of any imaging system. Learn more in this hands-on video demo.

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焦点距離と実視野の理解

固定焦点レンズにおける焦点距離について。及び焦点距離の決定方法。レンズの焦点距離の計算例や固定倍率のレンズを用いた実視野の計算式について。

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レンズ性能曲線

Are you trying to measure the performance of your lens? Although this can be a difficult task, there are curves that can help. Read more at Edmund Optics.

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変調伝達関数入門

Want to know more about the Modular Transfer Function? Learn about the components, understanding, importance, and characterization of MTF at Edmund Optics.

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Imaging Performance of Telecentric Lenses

Telecentric lenses eliminate perspective and measurement error, and are ideal for measurement and gauging applications.

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Edmund Optics Imaging: Telecentric Lenses versus Hypercentric Lenses

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Edmund Optics Imaging Lab 2.1: Distortion

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Edmund Optics Imaging Lab 2.2: Telecentricity

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ディストーションとテレセントリシティのスペック

Elimination of parallax and distortion play a large role in determining the quality of certain telecentric lenses. Learn more at Edmund Optics.

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テレセントリック デザインに関するトピックス

Object space and image space are the two types of telecentricity. These refer to the exit and entrance pupil locations of an optical system.

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テレセントリックレンズのサイズ的規制

Telecentric Lenses can grow quite large and heavy with small magnifications, as such magnifications require large front optics. Learn more at Edmund Optics.

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テレセントリシティが有利な点

Learn more about the advantages of telecentricity, including parallax error elimination, telecentric lenses, depth of field, and distortion, at Edmund Optics.

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The Advantages of Telecentricity

Nick Sischka explains telecentricity in this hands-on demonstration from the Edmund Optics 2021 Imaging Innovation Summit.

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What is a telecentric lens?

2011 Telecentric Bell Choir

The Future Depends on Optics®

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テレセントリック照明

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MercuryTL™ 液体レンズ実装テレセントリックレンズ

MercuryTL™ Liquid Lens Telecentric Lenses

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MercuryTL™ 液体レンズ実装テレセントリックレンズ

The TECHSPEC® MercuryTL™ Liquid Lens Telecentric Lenses combine the parallax error correction and high image quality of a telecentric lens with the flexibility of an integrated liquid lens.

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Parallax

Telecentric Lens

Telecentricity

同軸落射照明の考察

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光学収差の比較

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レンズデザインによるMTFの収差バランス

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Basic Lens Selection

マシンビジョンレンズの種類

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レンズ用スペーサーやシム、エクステンダーレンズ

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MTF曲線とレンズ性能

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レンズの構造

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変調伝達関数 (MTF)

MTF curves allow you to compare the performance of multiple lenses at the same time. To find out how MTF curves are beneficial, read more at Edmund Optics.

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基本的なレンズ選定

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固定倍率レンズの選定方法

Fixed magnification lenses typically function properly at a single working distance and are specified by their magnification. Learn more at Edmund Optics.

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高度なレンズ選定

The modulation transfer function of a lens varies depending on working distance, sensor size, f/#, and wavelength. Learn more at Edmund Optics.

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Edmund Optics Imaging Lab 3.8: Sneak Peek at Future Modules

Learn how to specify imaging system components.

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Best Practice #1 Bigger is Better

Join Greg Hollows, Director of the Imaging Business Unit and EO's Imaging Expert, as he reviews some Best Practice to consider when designing an imaging system.

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Best Practice #2 Don't Believe Your Eyes

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Best Practice #3 Don't Get Too Close

Join Greg Hollows, Director of the Imaging Business Unit and EO's Imaging Expert, as he reviews some Best Practice to consider when designing an imaging system.

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Best Practice #7 No Universal Solution

Join Greg Hollows, Director of the Imaging Business Unit and EO's Imaging Expert, as he reviews some best practices to consider when designing an imaging system.

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Best Practice #9 Be A Control Freak

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Best Practice #10 Be The Squeaky Wheel

Join Greg Hollows, Director of the Imaging Business Unit and EO's Imaging Expert, as he reviews some best practices to consider when designing an imaging system.

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Best Practice #11 Make A List

Join Greg Hollows, Director of the Imaging Business Unit and EO’s Imaging Expert, as he reviews some best practices to consider when designing an imaging system.

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The Impact of Distortion

Nick Sischka explains distortion in this hands-on demonstration from the Edmund Optics 2021 Imaging Innovation Summit.

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Calculating Lens Resolution with Precision

Deciphering Lens Specifications and Choosing the Proper Lens

A Closer Look at Resolution Testing

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What is an MVO Double Gauss imaging lens?

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Fixed focal length lenses are entocentric imaging lenses used in machine vision.

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What different types of fixed focal length lenses does Edmund Optics offer?

Edmund Optics designs and manufacturers many types of imaging lenses.

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What different types of fixed focal length lenses does Edmund Optics offer?

Imaging lenses feature a wide variety of lens mounts, all of which offer different benefits.

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Angular Field of View (AFOV)

Aperture (f/#)

Aperture Stop

Entrance Pupil

Exit Pupil

Field

Field Efficiency

Fixed Focal Length Lens

F-Mount

Image Circle

Line Pair (lp)

Vignetting

Working Distance (WD)

Working f/#

Zoom

Imaging System Parameter Calculator

Imaging Lens Selector

センサーとレンズ

Imaging lenses and sensors must be paired together with special attention.

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イメージングの基本

Want to understand the basic concepts of imaging? Learn more about essential terms and how they incorporate in the imaging industry at Edmund Optics.

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コントラスト

Is the definition on your image not clear? Go back to the basics and learn more about the contrast of an image and its importance at Edmund Optics.

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被写界深度と焦点深度

Are you getting depth of field and depth of focus confused? Discover the differences and how to distinguish the two from one another at Edmund Optics.

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レンズマウント

There are numerous mount types for connecting an imaging lens to a camera. Depending on the application, some mounts are more useful than others.

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ディストーション

Distortion is an individual aberration that misplaces information but can be calculated or mapped out of an image. Learn more about distortion at Edmund Optics.

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システムスループット、 Fナンバー、開口数

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マシンビジョン フィルタリング技法

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レンズからセンサーへ: 情報を集めることの限界

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物空間側の解像力

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周辺光量比、ロールオフ、口径食

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波長による性能上の影響

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Best Practice #4 Light Up Your Life

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LIGHT TALK - EPISODE 2: Increasing Imaging Sensor Sizes with Katie Schwertz

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LIGHT TALK - EPISODE 5: Ruggedized Imaging Lenses with Cory Boone and Ben Weaver

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Ruggedized Imaging Systems – TRENDING IN OPTICS: EPISODE 9

A new generation of harsh environment lenses has been developed to support the spread of automation and protect their imaging systems.

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Manipulating Wavebands: Color & Filters

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液体レンズ実装 M12マウントレンズ

TECHSPEC® Liquid Lens M12 Imaging Lenses from Edmund Optics combine a high-resolution with the electronic auto-focus of an integrated liquid lens

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液体レンズ実装 Cxシリーズ 固定焦点レンズ

TECHSPEC® Liquid Lens Cx Series Fixed Focal Length Lenses from Edmund Optics offer both high resolution and fast electronic focus.

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Why Should I Use a Lens Designed Specifically for SWIR Wavelengths?

Short wave infrared (SWIR) imaging applications require specialized imaging optics, as lenses designed for visible use are not optimized for SWIR wavelengths

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EOイメージングレンズができるまで

イメージングレンズの設計、レンズ素子の製造、アッセンブリ、試験をはじめとした製造工程のすべてを動画でご紹介いたします。

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Imaging Innovation Summit Keynote

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Edmund Optics Imaging Lab Module 1: Imaging Overview

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Lens Selection Guide, Part 2

The makings of a successful imaging lens, Part Three: Testing and metrology, ensuring you get what you asked for

The makings of a successful imaging lens, Part Two: Performance-based specifications and their design considerations

The makings of a successful imaging lens, Part One: Application and specification development

Vision & Sensors Lens Selection Guide, Part 1

What is the difference between Primary Magnification and System Magnification?

I need a video lens for my camera - but where do I start?

What is the difference between depth of field and depth of focus?

Which type of colored filter is best for my imaging application?

Back Flange Distance

Depth of Field (DOF)

Depth of Focus

Distortion

Distortion, Non-Monotonic

Field Curvature

Focal Length Extender

Horizontal Resolution

Hyperfocal Distance

Primary Magnification (PMAG)

Relative Illumination (RI)

S-Mount

Sliding Focusing Mechanism

T-Mount

良質なイメージングを得るための11のベスト・プラクティス

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収差

Need help understanding aberration theory? Learn about a few fundamental concepts to help clarify your understanding at Edmund Optics.

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エアリーディスクと解像限界

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イメージングとは?

In imaging, light rays are mapped from an object onto an imaging sensor by an imaging lens, to reproduce the characteristics and likeness of the object for the purposes of inspection, sorting, or analysis.

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SWIRとは?

Have a question about short-wave infrared (SWIR)? Find definitions, application uses, and examples at Edmund Optics.

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解像力とMTFテスト

Hyperspectral and Multispectral Imaging

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Edmund Optics Imaging Lab 3.2: The W of Illumination Geometry

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Edmund Optics Imaging Lab 3.3: Directional Illumination

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Edmund Optics Imaging Lab 3.4: Directional Illumination of Ring Lights

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Edmund Optics Imaging Lab 3.5: Backlights

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Edmund Optics Imaging Lab 3.6: Dome Lights

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Edmund Optics Imaging Lab 3.7: Line Lights

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Best Practice #5 Color Matters

Join Nick Sischka, Vision Solutions Specialist and member of EO's Imaging Team, as he reviews some best practices to consider when designing an imaging system.

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Best Practice #6 There Can Be Only One

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LIGHT TALK - EPISODE 1: Machine Vision Trends with Nick Sischka

Join our discussion around machine vision trends including such as increasing resolution and new sensors in the first episode of our LIGHT TALKS series.

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ハイパースペクトル & マルチスペクトルイメージング - 光学テクノロジー最前線: エピソード 7

Hyperspectral and multispectral imaging are imaging technologies that capture information from a broader portion of the electromagnetic spectrum.

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Lens Types, Resolution, and Sensor Coverage

No imaging lens is the ideal choice for every type of imaging sensor, as multiple tradeoffs must be weighed and prioritized for every application.

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Axial and Lateral Chromatic Aberration

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Edmund Optics Imaging Lab 1.1: Field of View

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Edmund Optics Imaging Lab 1.2: Working Distance

Edmund Optics Imaging Lab 1.5: Sensor Size

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Next generation image sensors: Are suppliers ready to meet growing customer expectations?

If I want to design with your lenses and lens assemblies, how do I get the information that I need?

Contrast

Spatial Frequency

解像力とコントラスト特性の比較

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Edmund Optics Imaging Lab 1.4: Depth of Field

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Edmund Optics Imaging Lab 1.7: Contrast In Depth

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Diffraction Limit

Modulation Transfer Function (MTF)

Nyquist Limit

Parfocality

Resolution

Resolving Power

解像力

Do you want to understand how a lens works? To do so, you must learn key terms for how the lens functions, including resolution. Find out more at Edmund Optics.

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Edmund Optics Imaging Lab Module 3: Illumination Overview

Learn how to specify imaging system components.

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Edmund Optics Imaging Lab Module 3.1: Introduction to Illumination Concepts

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Edmund Optics Imaging Lab 1.3: Resolution

Learn how to specify imaging system components.

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Edmund Optics Imaging Lab 1.6: Resolution In Depth

Learn how to specify imaging system components.

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Edmund Optics Imaging Lab 1.8: Depth of Field in Depth

Learn how to specify imaging system components.

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How I do select the correct testing target for my electronic imaging system (camera & lens)?

C-Mount

Field of View (FOV)

Magnification

Numerical Aperture (NA)

What is an "in-line" video system?

Edmund Optics Imaging Comparison: Why Optics Matter

The success of your machine vision application depends on the quality of your optical components.

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EOのグローバル製造拠点

ラピッドプロトタイピング、1日24時間稼働の非球面レンズ製造セル、最新の測量法など、他社とは一線を画すエドモンド・オプティクスのグローバルな光学部品の製造拠点の機能についてご紹介

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エドモンド・オプティクスの計測:製造の主要な要素としての測定

Learn about the metrology that Edmund Optics® uses to guarantee the quality of all optical components and assemblies.

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Refraction

 
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