Advanced Image Science |
KONDO, Naoki |
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【Master's program･2nd semester】
19-3-1489-2351 |
| １． |
Outline |
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Students will learn the followings in this course,
(1) Theory of image formation and imaging optical systems
(2) Physics of optical excitation and luminescence in solids
(3) Quantum theory of light and their statistical behavior
(4) The mechanism of light detectors
(5) Fluorescence imaging
(6) Multi-photon imaging.
This course is in accordance with diploma policy #2.
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| ２． |
Objectives |
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The history of imaging technology has started as an attempt to imitate human vision using optoelectronics. However, mankind's increased scientific knowledge and gaining control over light and matter lead the technology goes far beyond the range of what humans can see.
Today new imaging techniques that more fully exploit the quantum nature of light and electrons in solids are available. We have solid state single photon imagers that detects a single quantum of light and 3-dimensional multi-photon imaging systems that achieve high depth resolution via multiple photon absorption in a restricted high field region. They are becoming prevalent in the research works of many different scientific disciplines.
In this course we shall learn the basic quantum physics of light and the electrons in solids and the device mechanics that will enable us to understand and fully utilize those new imaging technologies.
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| ３． |
Grading Policy |
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You will be graded by your exercise performances (70%) and lab reports (30%).
Comments are appropriately provided for feedback.
|
| ４． |
Textbook and Reference |
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Textbook: None.
You will be provided with the PDF files of lecture materials on my website.
References:
Seitz et al, Eds., "Single-Photon Imaging", Springer (2011).
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| ５． |
Requirements (Assignments) |
|
Read the corresponding part of the lecture materials and the reference books carefully (~3 hours).
Seitz's book covers lectures #5, 9 and 10.
|
| ６． |
Note |
|
None.
|
| ７． |
Schedule |
|
| １. Classical theory of light |
| ２. Basics of geometrical optics |
| ３. The theory of image formation |
| ４. Structures and functions of imaging optical system |
| ５. Quantum nature of light and its statistical behavior |
| ６. Fundamentals of quantum mechanics |
| ７. Physics of optical excitation and luminescence in solids |
| ８. Quantum theory of light |
| ９. The statistics of light quanta |
| 10. The mechanism of light detectors, single photon detectors |
| 11. Fluorescence imaging techniques and their applications |
| 12. The basics of nonlinear optics: interaction between matter and multiple photons |
| 13. Ultrashort pulse lasers: their types and mechanisms |
| 14. Multi-photon imaging techniques and their applications |
15. The future of multi-photon imaging: entangled photons and quantum imaging.
Note labs might change its contents due to experimental conditions. |
|
| １． |
Outline |
|
Students will learn the followings in this course,
(1) Theory of image formation and imaging optical systems
(2) Physics of optical excitation and luminescence in solids
(3) Quantum theory of light and their statistical behavior
(4) The mechanism of light detectors
(5) Fluorescence imaging
(6) Multi-photon imaging.
This course is in accordance with diploma policy #2.
|
| ２． |
Objectives |
|
The history of imaging technology has started as an attempt to imitate human vision using optoelectronics. However, mankind's increased scientific knowledge and gaining control over light and matter lead the technology goes far beyond the range of what humans can see.
Today new imaging techniques that more fully exploit the quantum nature of light and electrons in solids are available. We have solid state single photon imagers that detects a single quantum of light and 3-dimensional multi-photon imaging systems that achieve high depth resolution via multiple photon absorption in a restricted high field region. They are becoming prevalent in the research works of many different scientific disciplines.
In this course we shall learn the basic quantum physics of light and the electrons in solids and the device mechanics that will enable us to understand and fully utilize those new imaging technologies.
|
| ３． |
Grading Policy |
|
You will be graded by your exercise performances (70%) and lab reports (30%).
Comments are appropriately provided for feedback.
|
| ４． |
Textbook and Reference |
|
Textbook: None.
You will be provided with the PDF files of lecture materials on my website.
References:
Seitz et al, Eds., "Single-Photon Imaging", Springer (2011).
|
| ５． |
Requirements (Assignments) |
|
Read the corresponding part of the lecture materials and the reference books carefully (~3 hours).
Seitz's book covers lectures #5, 9 and 10.
|
| ６． |
Note |
|
None.
|
| ７． |
Schedule |
|
| １. Classical theory of light |
| ２. Basics of geometrical optics |
| ３. The theory of image formation |
| ４. Structures and functions of imaging optical system |
| ５. Quantum nature of light and its statistical behavior |
| ６. Fundamentals of quantum mechanics |
| ７. Physics of optical excitation and luminescence in solids |
| ８. Quantum theory of light |
| ９. The statistics of light quanta |
| 10. The mechanism of light detectors, single photon detectors |
| 11. Fluorescence imaging techniques and their applications |
| 12. The basics of nonlinear optics: interaction between matter and multiple photons |
| 13. Ultrashort pulse lasers: their types and mechanisms |
| 14. Multi-photon imaging techniques and their applications |
15. The future of multi-photon imaging: entangled photons and quantum imaging.
Note labs might change its contents due to experimental conditions. |
|
|