| Course title | |||||
| 数理統計学 [Mathematical Statistics] | |||||
| Course category | specialized courses/ major subjects | Requirement | Credit | 2 | |
| Department | Year | 3～4 | Semester | Fall | |
| Course type | Fall | Course code | 02b3259 | ||
| Instructor(s) | |||||
| 岡崎 伸 [OKAZAKI Shin] | |||||
| Facility affiliation | Scleroprotein and Leather Research Institute | Office | 8-212 | Email address | |
| Course description |
|
Register to the Googleclassroom of the Class-code: jsvu4dg Students should bring in the lecture room L0023 with their own personal notebook PC. The details of the lectures are shown in the GoogleClassroom. Through the Classroom, the reference materials will be provided. Submission of the requested reports are also to be made through it as well. The outline of the lectures is as follows. Applications of ionizing radiation effects gave rise to a tremendous success in various fields of industrial and medical technologies, due to which the ionizing radiations are regarded as an indispensable tool in analytical, diagnostic, synthetic, and therapeutic engineering. A simple picture of ionizing radiation to the matter is a gigantically energetic, but extremely tiny bullet, so that ionizing radiation is penetrative and can provide large amount of energy inside materials. One can also control the size of bullet, so that can control the penetration depth by using the physical properties of matter. However, one should recognize that the use of ionizing radiation without proper understanding can cause considerable damage onto life and material with the gigantic energy. We thus study fundamental properties of ionizing radiation and obtain the concept of radiation effects as the basic ground for engineers of synthesis and fabrication of materials and for those of bio-medical engineering. The present series of Radiation Chemistry stand as the comprehensive development of the knowledges of physical and related subjects given in earlier lectures from a special monographic view point. |
| Expected Learning |
|
(1) To become able to understand and to explain what radiation is, which involves the radiation effects characteristic to radiation energies and radiation qualities. (2) To become able to explain qualitatively the radiation effects to the gas, the condensed materials, and the bio-matters. (3) To become able to explain the basics and characteristics of the methods of investigations onto radiation chemistry. (4) To became aware of the applications of radiation chemistry. Corresponding criteria are shown in the Diploma Policy of the department of Biomedical Engineering. See also the corresponding Curriculum maps. |
| Course schedule |
|
1. Introduction to radiation effects: as a basis of radiation therapy and diagnostic radiology 2. Radiation chemistry and radiochemistry: where the radiation comes from? 3. What will be caused by radiation?: fundamentals of destructive effects and radical reactions. 4. Molecular structures and molecular decomposition. 5. Atomic structure 1: an outline of quantum mechanics of one electron atoms. 6. Atomic structure 2: two-electron and multi-electron atoms and electron spin 7. Degradation of radiation in the matter 1: δ-ray, Compton effect, and Auger effect. 8. Degradation of radiation in the matter 2: potential scattering. 9. Degradation of radiation in the matter 3: cross sections for scattering and collisions. 10. Degradation of radiation in the matter4: continuous slowing down model and simulations. 11. The fate of radiation in the matter: hydrated electron, recombination, and electron attachment. 12. Conclusive view of chemical and physical effects induced by radiation. 13. Method of generating radiation. 14. Radiation detection and radiation dosimetry 1. 15. Radiation detection and radiation dosimetry 2. |
| Prerequisites |
|
Earlier year physics lectures are assumed to be completed. Fundamental quantum mechanical is requested. However, we will revisit those phenomena upon necessity. Students are expected to have the standard amount of time to prepare for and review the lecture as specified by the University. |
| Required Text(s) and Materials |
| Not specified. Summary of lecture notes will be provided. |
| References |
|
"Suggestion from specialists to Radiation Chemistry", ed. Japanese Society of Radiation Chemistry (Gakkai-shuppann center, 2006).(in Japanese) "Fundamentals of Radiation Chemistry", A.Mozumder (Academic Press, 1999). "Charged Particles and Photon Interactions with Matter", eds. Y.Hatano et al (Marcel Dekker, 2004), (CRC Press, 2011). Old but very basic monograph is "Fundamentals of Nuclei and Radiation", J.Sanada (Kyoritsu Shuppann, 1966) (in Japanese). Relatively new Japanese references: Mechanisms of Radiation Hazards, ed. Y.Yamamoto (Gakkai-shuppann center, 1982).(in Japanese) Molecular Radiation Biology, S.Kondow (Gakkai-shuppann center, 1972).(in Japanese) Applications of Radiation Detections, M.Noguchi and H.Tominaga (Nikkann Kogyo Shinnbunn, 2004) variou monographs are available among "Series of Spectroscopic Measurements", ed. Jpn. Soc. Spectrosc. (Gakkai shuppann Center) |
| Assessment/Grading |
|
(1) A few Quizzes at every lecture. (2) Examination at the end of semester. The weight of evaluation of (1) to (2) is approximately 1 to 2. |
| Message from instructor(s) |
|
Keep your brains operating appropriately! Radiation Chemistry is indispensable knowledge for therapeutic and diagnostic engineers of bio-medical engineering. So you are strongly recommended to take this series of lectures. |
| Course keywords |
| ionizing radiation, radiation effects, radiation measurement and dosimetry |
| Office hours |
| Need appointments beforehand by Email. |
| Remarks 1 |
| Remarks 2 |
| Related URL |
| Lecture Language |
| Japanese |
| Language Subject |
| Last update |
| 4/5/2023 4:33:13 PM |