Optics 2

Display Schedule

Subject guarantor

Petr PÁTA

Name of lecturer(s)

Petr PÁTA

Contents

1. Basic types of the camera lenses

Imaging and photometric properties of the basic types of the camera lenses. The criterion of the quality of the camera lenses (PSF, MTF). Comparison of properties of various types of the photographic lenses. Supplementary lenses (Converters). Methods for measuring the basic parameters and image quality of the photographic lenses (focal length, location of the focal points, magnification, PSF, MTF).

1. Zoom lenses

Basic properties and construction of the zoom lenses. The macro-lens, their structure and properties. Image-space (or image-side) telecentric lenses. Image stabilizer and autofocus systems.

1. The quality of the photographic lenses evaluation

Measurement of the focal length and the position of focal points of the optical systems. Measurement of lens distortions. Measurement resolution of the optical systems, point spread function, modulation transfer function and spectral properties of lenses. Measurement stability of the image position of the zoom lenses.

1. Wave optics

Basic concepts of wave optics. Velocity of the light in vacuum. The refractive index of the optical materials and its dependence on the wavelength of light. Abbe number of optical glass. Light as electromagnetic waves. Amplitude, phase, polarization, wavelength and frequency of waves.

1. Interference of light

Coherence of light. Two-beam interference of light. Young interference experiment. Interference in thin dielectric layers. Antireflection coatings, principle and their effect on reducing stray light, contrast and color matching lenses. Interference filters and their properties.

1. Diffraction of light

What is diffraction of light. Diffraction of light by a circular and a rectangular hole. Influence of diffraction on the optical imaging quality. Point spread function (PSF) of the optical system. Airy disc and its size. Rayleigh criterion. Resolution of the optical systems. Modulation transfer function of the optical system (MTF) and its importance in the theory of optical imaging. Diffractive optical elements and their application in cinema.

1. Polarization of light

Brewster and Malus law. Polarization effects in cinema and television. Chromatic polarization. Polarizing filters, their

properties and usage.

1. Lasers

Laser and its properties. Gaussian beams, their characteristics and differences from classical homocentric beams.

1. Holography

Physical principle of holography.

Fundamental knowledge: knowledge of the subject Optics I and other theoretical subjects in basic studies

Learning outcomes

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Prerequisites and other requirements

Fundamental knowledge: knowledge of the subject Optics I and other theoretical subjects in basic studies

Literature

[1] S.F.Ray: Applied photographic optics, Focal Press, New York, 2002.

[2] M.Born, and E.Wolf, Principles of Optics, Oxford University Press, New York 1999

[3] http://www.cambridgeincolour.com/tutorials/camera-lenses.htm

[4] http://diglloyd.com/index-free.html

[5] http://toothwalker.org/sitemap.html

[6] http://www.hasselbladhistorical.eu/HW/HWLds.aspx

[7] http://www.trioptics.com

[8] http://en.wikipedia.org/wiki/

[9] http://www.edmundoptics.com/

[10] http://www.canon.com/bctv/faq/if.html

[11] http://www.canon.hu/Images/Ef%20Lens%20Technology_tcm128-783488.pdf

Evaluation methods and criteria

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Note

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Schedule for winter semester 2022/2023:

• Week view
• List

Schedule for summer semester 2022/2023:

The schedule has not yet been prepared

The subject is a part of the following study plans

• Cinematography_1920 (required subject)
• Cinematography_3_2021 (required subject)