修課年級

本系必修科目

先修科目

大二

應用數學一

微積分甲下

大二

雲物理學

大氣熱力學

大三

天氣學一

大氣熱力學

大三

大氣動力學一

應用數學一

大三

大氣動力學二

大氣動力學一

大三

天氣學二

天氣學一

大三

天氣學實習二

天氣學實習一

大四

氣候學

大氣輻射學

大氣熱力學

大氣動力學一

星 期

一

二

三

四

五

節次

科目

1

8:10

|

9:00

1大概(傑、輝、健、維、彥)B105

3大氣動力學二(郭)B105

3大氣動力學二(郭)B105

2

9:10

|

10:00

M深對流特論……(仁) A100

U空氣汙染導論(谷) A104

M機器學習在大氣熱力學的應用……(健) A104

3

10:20

|

11:10

2應用數學一…(梁) B105

M科學寫作與發表01(谷) A100

34大氣科學研究導論 (輝、傑、健、彥) A104

M動力氣候學…… (隋) A108

M科學寫作與發表02(谷) A100

2大氣化學…(洪) B105

2雲物理學…………(平)B105

3天氣學一 ……… (仁、維)B105

M動力氣候學 (隋) A108

2應數一(梁) A104

2大氣化學…(洪) B105

M科學寫作與發表02(谷) A100

4

11:20

|

12:10

M科學寫作與發表01(谷) A100

5

12:20

|

1:10

2大氣測計學……(博) B105

M全球大氣環流(彥) A104

6

1:20

|

2:10

U大氣環境概論(谷) A100

M大氣遙測(依) 共同105

MD  專 題 討 論  B105

專題演講保留時段…B105

3大物化(平) A104

7

2:20

|

3:10

M氣候變異與預測(盧、隋) A108

M雙偏極雷達專題(島、兆) A206

3天氣學實習一……… (仁、維)B105

M人為氣候變遷下的水文循環變化:陸地模式的應用(輝) A104

8

3:30

|

4:20

1程式與科學計算…(維) B105

U空氣汙染導論(谷) A104

M混沌與可預報度(治) A100

U生命科學數學(郭) B105

物理海洋概論(楠) A104

M高等天氣與氣候動力(和) B105

3大氣物理化學…(平) A104

M混沌與可預報度(治) A100

9

4:30

|

5:20

U大氣環境概論(谷) A100

10

5:30

|

6:20

U大氣程式實作(維) B105

碩士班選修(M字頭)

課程名稱

教 師

學分

內 容 介 紹

動力氣候學

隋中興

3

本課程介紹大氣-海洋平均氣候與低頻震盪的特徵及動力過程，特別是熱帶多尺度波動。主要介紹ITCZ和年週期變化，熱帶氣旋與波動，季節內振盪、年際震盪（如厄爾尼諾 - 南方濤動，印度洋偶極子）、年代際變化。課程著重理論和概念模型的講授，以利學生理解觀測現象背後的物理機制。授課對象為具備大氣-海洋科學背景的大四及研究所學生。

大尺度雲與水汽過程

隋中興

2

Earth atmosphere is uniquely regulated by water cycle. It spans wide spatiotemporal spectrum and many layers of governing physics. Through interactions with energy cycle and circulation, the moisture and cloud of highly fluctuating nature exhibit surprisingly coherent large-scale structure. The corresponding convective-radiative processes relevant in climate oscillations of different scales are essential part of climate dynamic.
This course is designed to be a graduate level (both MS and Ph.D.) course, with emphasis on interactions between convection and tropical weather (tropical waves) and climate oscillations (the MJO and ENSO) as well as mechanisms maintaining convective-radiative equilibrium. One half to two third of the course is taught by lectures covering the fundamentals, bibliographic survey, literature reading [basic and general references]. The rest of the course time will be devoted to observational and modeling analysis.

高等數值天氣預報

楊明仁

3

This course will introduce the advanced applications of numerical weather prediction (NWP), mainly using the WRF model. The spectral and pseudospectral methods typically used in the global model and tropical cyclone studies will be discussed. Relaxation method used in solving the Laplace and Possion equations will be presented. Several methods for lateral boundaries used in regional models will be discussed. Class projects based on the material covered in this class will be assigned. Students taking this course are assumed to have the basic knowledge of finite-difference methods and numerical analysis.

深對流特論

楊明仁

3

The physical and dynamical processes of deep cumulus clouds, which usually occur in mesoscale convective systems (MCSs), tropical cyclones and cloud clusters, and orographic precipitation will be introduced. Examples of important deep-convection phenomena near the Taiwan area, such as typhoons and MCSs within a Mei-Yu front, and their associated dynamics will be demonstrated and discussed.

Lecture Outline
1. Types of Convective Clouds in Earth’s Atmosphere
2. Basics of Cloud Microphysics
3. Basics of Cloud Dynamics
4. Cumulonimbus and Severe Storms
5. Mesoscale Convective Systems
6. Dynamics and Precipitation in Tropical Cyclones
7. Instabilities within Deep Convection
8. Gravity Waves Generation and Propagation

大氣海洋流體力學特論

郭鴻基

1

1. Conservation laws and basic equations:
Rotation and stratification; potential temperature/density; the primitive equations;
The vertical transform and shallow-water equations
2. Circulation, vorticity, absolute vorticity and potential vorticity:
Helmholtz theorem, Gauss’ theorem, Stoke’s theorem, and Kelvin circulation theorem;
Bjerknes solenoidal term, Rossby and Ertel’s potential vorticity (PV) equation;
Impermeability theorem of PV substance.
3. Potential vorticity conservation and isentropic fluid dynamics:
Thermodynamic reversibility and entropy,
Diabaticity and mixing,
The equations of motion in isentropic coordinates,
Ertel’s PV and entropy conservation
Quasi-geostrophy in isentropic coordinates
4. Slow manifold quasi-balanced dynamics and 2D turbulence
Bachelor’s hypothesis, selective decay of enstrophy;
Geostrophic Adjustment, secondary circulation equation;
Examples in vortex dynamics and filamentations.
5. Hamiltonian formulation [*optional]
Re-derivation of isentropic equations
Particle-re-labelling symmetry and PV conservation (Chapter 7.2 of Salmon)
Non-canonical Hamiltonian dynamics and PV as a Casmir (Chapter 7.10 of Salmon)

高等大氣動力學

郭鴻基

3

因應地球科學跨領域研究，高等大氣動力學課程的安排，除了傳統大氣動力學外，更廣泛包括大氣海洋流體力學 (Atmospheric Oceanic Fluid Dynamics, AOFD)；課程也將加入新元素：例如探討空氣、水等流體性質對於生命科學與生物的影響；探討非線性動力數學建模，包含多重平衡與穩定、回饋、遲滯、同步、尺度分析等課題。課程重視數學思考與模式計算。

氣候診斷

盧孟明 / 隋中興

2

Climate predictions on weekly, monthly, seasonal and annual timescales involves many processes that operate among the atmosphere, ocean and land surface. Monitoring and analyzing the weekly to interannual climate variability is an efficient way to enhance our understanding of global and regional climate variability and the relationship with high-impact weather events.
This course is designed to be a graduate level (both MS and Ph.D) course, with emphasis on learning about how to talk about natural variability from weekly to interannual time scales, and the fundamental statistical/quantitative methods used to diagnose the natural variability. The diagnostics aims to assess the nature of climate variations on differing time scales.
The class will be a mixture of lectures, discussions, and student presentations. Half of the course is taught by interactive-oriented lectures covering the major topics that is relevant to the real-time climate monitoring and discussion. The rest of the course time will be devoted to observational and forecast data analysis and student presentations. There will be homework and midterm progress report to cover the lectures and a final oral presentation and written report on topic chosen by students.

氣候變異與預測

盧孟明

3

氣候變異概指由大氣、海洋、陸表共同組成的氣候系統相對於三十年或更長時期平均狀態的偏離程度，重要現象有以週、月、季、年為時間單位的短期氣候變化，以及與其相依相存的年代(十年)、多年代、世紀等長週期緩慢變化。氣候變異的發生機制決定於大氣、海洋、陸表交互作用的過程，了解這些過程以及各主要變異模態對全球和區域氣候的影響是發展氣候預測的科學基礎。
本課程著重在時間尺度在三十年之內的氣候自然變化和預測，不包含尺度更長的氣候變遷或人為因素對氣候影響等課題。主要對象為碩博士班研究生，側重了解氣候變異主模態的現象與形成機制，氣候模式對氣候變異的模擬和預測能力，氣候可預測度來源的分析與解釋，氣候變異主模態與東南亞和西北太平洋以及臺灣天氣與氣候的關係。約三分之二的課程內容為講述動力氣候基本概念與文獻閱讀和討論，另三分之一為全球觀測和預測資料分析及討論。為加強對課程內容的了解，將有作業和期中考試，也將由學生在課程範圍內自己挑選想深入了解的研究題目在課堂討論並撰寫期末報告。

熱帶氣候動力專題(1)-MJO

盧孟明

1

This is an advanced Tropical Climate Dynamics course intended for graduate students. It will introduce key observational phenomena in tropics, and discuss dynamic mechanisms behind the observed phenomena. We plan to cover four topics (MJO, Monsoon, ENSO, Climate mean state) in successive four semesters. For this semester the special topic is MJO and the course outline is as following:
1. Observed characteristics
2. Eastward propagation and planetary scale selection
3. Northward propagation in boreal summer
4. Initiation
5. Role of air-sea interaction and inter-annual variation

熱帶氣候動力專題(2)-BSISO

盧孟明

1

This is an advanced Tropical Climate Dynamics course intended for graduate students. It will introduce key observational phenomena in tropics, and discuss dynamic mechanisms behind the observed phenomena. We already covered the topic of MJO in 2018 Spring Semester and plan to continue covering four topics (BSISO, Monsoon, ENSO, Climate mean state) in successive four semesters.
For this semester (Fall 2019) the special topic is BSISO and the course outline is as following:
1. Observed characteristics
2. Propagation and planetary scale selection
3. Initiation process
4. Role of air-sea and air-land interaction and interannual variation

全球大氣環流

黃彥婷

3

This course introduces the characteristics and the associated mechanisms of the large-scale circulation in the atmosphere. With the goal of bridging theories and observation using conceptual and numerical models with different level of complexity, we focus on the zonal mean circulation and briefly extend to the 3D circulation. Topics include: Hadley Circulation, midlatitude zonal mean circulation, the interactions between tropics and extratropics, and 3D atmospheric circulation. The model-projected trend (during global warming) of these circulations will be covered by paper discussions, which are designed to review and discuss the fundamental theories and simplified models.

雲動力學

吳健銘

3

This course focuses on the general dynamics of cloud systems. Models of fog, stratocumulus, shallow cumulus, deep cumulus, and orographic convection will be presented. Classes will include presentations by the instructor and students. Material covered in class will be supplemented by homework assignments, which require coding abilities. Numerical simulations of idealized convective systems will be conduced using the vector vorticity equation cloud resolving model (VVM). The class will conclude with student presentations on a chosen project based on the results of the numerical simulations.
Class discussions will be held at the end of each topic or main subsection to discuss science questions arising from the material just presented. Each student is expected to have thought about such questions independently and be able to present these in class if called on.

地球系統模式—物理過程

吳健銘

3

本課程將介紹地球系統模式之對流過程並分單元授課。主要介紹如何在大尺度模式中表示積雲對流的過程，將使用高解析大渦模式(LES),雲解析模式(CRM), 之模擬結果簡化成概念模式。課程內容包含講演與模式實作與分析。將分為下述課題: 乾對流過程、淺對流過程、深對流過程、大渦模式與雲解析模式之介紹

 陸地大氣交互作用

羅敏輝

 3

Feedbacks between land and atmosphere play a central role in the interactive functioning of the Earth's climate. The goal of this course is to understand the essential aspects of roles of land processes in the climate systems. Topics covered include: (1) basics of terrestrial surface energy, water and carbon balances, (2) ecohydrology, and (3) land use and land cover changes. Students will read several critical papers in these topics, and will also learn to design, perform, and analyze numerical climate experiments/outputs with a land surface model and climate model for their final project.

中尺度氣象學

游政谷

2

隨著近年來觀測儀器(技術)的進步以及高解析度數值模式的廣泛應用，使得我們慢慢了解到，較劇烈且具傷害力的天氣現象(如強烈降水與風暴)常侷限於中小尺度的範疇。可是由於發生這些劇烈天氣的原因相當多樣化且複雜，傳統的綜觀氣象理論基礎已無法滿足我們對於這些現象的了解。本課程的主要目的為介紹實際大氣中的中尺度天氣現象，並就各種不同的中尺度天氣系統，廣泛說明它們內部的結構與隱含的物理與動力過程。這其中，現階段的了解為授課重心，然而目前最新的研究成果也會在課堂上適時予以補充說明。課程內容將針對下列主題作有系統的闡釋：(1)中尺度的基本概念 、(2)中尺度天氣現象的觀測分析與預報、(3)大氣對流的觀念、(4)中緯度及熱帶中尺度對流系統、(5)劇烈風暴、(6)鋒面的中尺度特徵與其伴隨的雨帶。

地物流力

陳世楠 / 林和

3

This is an upper-level undergraduate and graduate-level course on geophysical waves and instability. We will focus on slowly evolving flow that is nearly in geostrophic balance and thus satisfies the “Quasi-geostrophic (QG) approximation”. The primary subjects are:

1. QG
2. Rossby wave
3. Baroclinic instability
4. Wave-mean-flow interactions

The course format is a combination of lectures and student project, with student-led presentation/ discussion.

雲與環境專題討論

陳維婷

3

本課程主旨在討論研究「台灣極端空氣汙染事件在不同天氣型態下之特性」，經由對觀測與模擬資料之分析瞭解當前東亞綜觀天氣型態下台灣PM2.5與環境條件、邊界層、雲物理、輻射收支、大尺度環流之關係，討論其中牽涉之物理過程，並推估未來氣候變遷情境下台灣PM2.5高汙染事件的可能改變。

氣候變遷科學

陳維婷

3

• This course provides a solid foundation in climate change science, including lectures on the physical basis of anthropogenic climate change, natural climate variations, and global climate models.
• The students need to work on projects to obtain a hands-on experience on building toy models and analyzing the observational data sets and global model outputs.
• The student will read and present selected sections of the 2013 IPCC 5th Assessment Report (AR5) of Working Group I Physical Basis, as well as the related literatures, to understand the current status of climate change research.

Prerequisite on student levels:
• 4th-year undergrad or above in Atmospheric Sciences major, or upon the approval of the instructor.
• The students need to have basic capabilities to analyze and/or visualize numerical data using scientific software/programming language, such as FORTRAN, GrADS, IDL, Matlab, or NCL.
• They also need to have basic understandings to the earth system sciences, atmospheric thermodynamics and radiation, statistics, and climatology.

資料同化

連國淵

3

Data assimilation is an important field in numerical modeling and analysis in geoscience. It allows observation information to be objectively and optimally ingested into numerical models using statistical theories, providing analysis data which are essential for initializing model prediction and for climate studies.
This course will introduce the concept of data assimilation and study several common objective analysis and data assimilation schemes in geoscience, from simple interpolation to advanced methods such as variational data assimilation and ensemble Kalman filter. Recent advancement in this field and the implementation and application in operational numerical weather prediction will also be introduced.

大學部選修

課程名稱

教 師

學分

內 容 介 紹

動力氣候學

隋中興

3

本課程介紹大氣-海洋平均氣候與低頻震盪的特徵及動力過程，特別是熱帶多尺度波動。主要介紹ITCZ和年週期變化，熱帶氣旋與波動，季節內振盪、年際震盪（如厄爾尼諾 - 南方濤動，印度洋偶極子）、年代際變化。課程著重理論和概念模型的講授，以利學生理解觀測現象背後的物理機制。授課對象為具備大氣-海洋科學背景的大四及研究所學生。

大氣遙測

林依依

3

本課程將包含四大部分，分別為1.大氣輻射原理：介紹大氣的吸收、散射及發射等特性，其黑體輻射和大氣光譜之特性。2.大氣遙測原理：包括輻射傳送基本原理及衛星遙測的基本原理。3.衛星及其觀測頻道特性之介紹：氣象衛星與衛星遙測進展及技術演進之簡介，並探討衛星遙測頻道之特性、應用範圍、能力與限制，以及各種輻射計之簡介。4.大氣參數之反演及應用：衛星觀測資料在大氣遙測之應用，包括海面溫度、大氣垂直溫濕剖麵、氣膠、雲、降雨及海器參數等等之遙測。

氣候診斷

盧孟明 / 隋中興

2

Climate predictions on weekly, monthly, seasonal and annual timescales involves many processes that operate among the atmosphere, ocean and land surface. Monitoring and analyzing the weekly to interannual climate variability is an efficient way to enhance our understanding of global and regional climate variability and the relationship with high-impact weather events.
This course is designed to be a graduate level (both MS and Ph.D) course, with emphasis on learning about how to talk about natural variability from weekly to interannual time scales, and the fundamental statistical/quantitative methods used to diagnose the natural variability. The diagnostics aims to assess the nature of climate variations on differing time scales.
The class will be a mixture of lectures, discussions, and student presentations. Half of the course is taught by interactive-oriented lectures covering the major topics that is relevant to the real-time climate monitoring and discussion. The rest of the course time will be devoted to observational and forecast data analysis and student presentations. There will be homework and midterm progress report to cover the lectures and a final oral presentation and written report on topic chosen by students.

大氣觀測實作

林博雄

2

為了落實教學實作精神，本課程利用本校生農學院梅峰山地農場為教學觀測場所，進行一週密集教學。授課內容包括:氣候變遷議題對生態環境的衝擊，人為開發環境和天然環境的微氣象差異，介紹各國對於森林環境監測的方法和工具，說明梅峰山地農場生物多樣性特色和局地氣候背景計畫。戶外觀測實作內容計有：地形雲與霧的觀察、雲霧酸鹼值測定、人工溫室與天然空曠地微氣象調查與差異分析、氣膠採樣分析

大尺度雲與水汽過程

隋中興

2

Earth atmosphere is uniquely regulated by water cycle. It spans wide spatiotemporal spectrum and many layers of governing physics. Through interactions with energy cycle and circulation, the moisture and cloud of highly fluctuating nature exhibit surprisingly coherent large-scale structure. The corresponding convective-radiative processes relevant in climate oscillations of different scales are essential part of climate dynamic.
This course is designed to be a graduate level (both MS and Ph.D.) course, with emphasis on interactions between convection and tropical weather (tropical waves) and climate oscillations (the MJO and ENSO) as well as mechanisms maintaining convective-radiative equilibrium. One half to two third of the course is taught by lectures covering the fundamentals, bibliographic survey, literature reading [basic and general references]. The rest of the course time will be devoted to observational and modeling analysis.

生物氣象學

林博雄

3

本課程探討大氣圈和生物圈的互動，針對動物、植物和人類等三大對象，探討生物氣象之理論與實務，最後討論氣候變遷對生態的衝擊議題。

全球大氣環流

黃彥婷

3

This course introduces the characteristics and the associated mechanisms of the large-scale circulation in the atmosphere. With the goal of bridging theories and observation using conceptual and numerical models with different level of complexity, we focus on the zonal mean circulation and briefly extend to the 3D circulation. Topics include: Hadley Circulation, midlatitude zonal mean circulation, the interactions between tropics and extratropics, and 3D atmospheric circulation. The model-projected trend (during global warming) of these circulations will be covered by paper discussions, which are designed to review and discuss the fundamental theories and simplified models.

空氣汙染實作

洪惠敏

2

此課程提供學生基本空氣汙染知識及量測方法，並動手組裝小型量測儀器(Raspberry Pi single-board computer +高靈敏感測器)，在期末將根據所此課程的知識及所組裝儀器進行校正及期末主題研究,根據監控化學物質時間及區域性分布探討汙染物的成因與影響。

生地化循環與氣候

洪惠敏

3

This course will discuss the interaction between biosphere, chemistry and climate from presentations with some hands-on-experiments. The contents of this course include:
1. REVIEW ATMOSPHERIC CHEMISTRY
2. BIOGENIC AEROSOLS
3. THE CARBON CYCLE
4. ATMOSPHERIC METHANE
5. ATMOSPHERIC NITROGEN
6. ATMOSPHERIC SULFATE
7. AIR QUALITY AND CLIMATE
8. STRATOSPHERIC CHEMISTRY
9. WILDFIRES / DEFORESTATION / LAND USE CHANGE
10. GEO-ENGINEERING OF CLIMATE

天氣診斷專題一

李清勝 / 楊明仁

2

本專題將利用中央氣象局所提供及其他可獲得之資料，對大氣內實際發生的現象，利用相關課程所學的學理進行診斷分析與詮釋；討論對象將包括不同尺度(行星尺度、綜觀尺度、中尺度、對流尺度)環流系統與天氣現象之結構與演變，並將特別注重區域性天氣現象有關之討論及詮釋。

高等數值天氣預報

楊明仁

3

This course will introduce the advanced applications of numerical weather prediction (NWP), mainly using the WRF model. The spectral and pseudospectral methods typically used in the global model and tropical cyclone studies will be discussed. Relaxation method used in solving the Laplace and Possion equations will be presented. Several methods for lateral boundaries used in regional models will be discussed. Class projects based on the material covered in this class will be assigned. Students taking this course are assumed to have the basic knowledge of finite-difference methods and numerical analysis.

深對流特論

楊明仁

3

The physical and dynamical processes of deep cumulus clouds, which usually occur in mesoscale convective systems (MCSs), tropical cyclones and cloud clusters, and orographic precipitation will be introduced. Examples of important deep-convection phenomena near the Taiwan area, such as typhoons and MCSs within a Mei-Yu front, and their associated dynamics will be demonstrated and discussed.

Lecture Outline
1. Types of Convective Clouds in Earth’s Atmosphere
2. Basics of Cloud Microphysics
3. Basics of Cloud Dynamics
4. Cumulonimbus and Severe Storms
5. Mesoscale Convective Systems
6. Dynamics and Precipitation in Tropical Cyclones
7. Instabilities within Deep Convection
8. Gravity Waves Generation and Propagation

大氣海洋流體力學特論

郭鴻基

1

1. Conservation laws and basic equations:
Rotation and stratification; potential temperature/density; the primitive equations;
The vertical transform and shallow-water equations
2. Circulation, vorticity, absolute vorticity and potential vorticity:
Helmholtz theorem, Gauss’ theorem, Stoke’s theorem, and Kelvin circulation theorem;
Bjerknes solenoidal term, Rossby and Ertel’s potential vorticity (PV) equation;
Impermeability theorem of PV substance.
3. Potential vorticity conservation and isentropic fluid dynamics:
Thermodynamic reversibility and entropy,
Diabaticity and mixing,
The equations of motion in isentropic coordinates,
Ertel’s PV and entropy conservation
Quasi-geostrophy in isentropic coordinates
4. Slow manifold quasi-balanced dynamics and 2D turbulence
Bachelor’s hypothesis, selective decay of enstrophy;
Geostrophic Adjustment, secondary circulation equation;
Examples in vortex dynamics and filamentations.
5. Hamiltonian formulation [*optional]
Re-derivation of isentropic equations
Particle-re-labelling symmetry and PV conservation (Chapter 7.2 of Salmon)
Non-canonical Hamiltonian dynamics and PV as a Casmir (Chapter 7.10 of Salmon)

高等大氣動力學

郭鴻基

3

因應地球科學跨領域研究，高等大氣動力學課程的安排，除了傳統大氣動力學外，更廣泛包括大氣海洋流體力學 (Atmospheric Oceanic Fluid Dynamics, AOFD)；課程也將加入新元素：例如探討空氣、水等流體性質對於生命科學與生物的影響；探討非線性動力數學建模，包含多重平衡與穩定、回饋、遲滯、同步、尺度分析等課題。課程重視數學思考與模式計算。

氣候變異與預測

盧孟明

3

氣候變異概指由大氣、海洋、陸表共同組成的氣候系統相對於三十年或更長時期平均狀態的偏離程度，重要現象有以週、月、季、年為時間單位的短期氣候變化，以及與其相依相存的年代(十年)、多年代、世紀等長週期緩慢變化。氣候變異的發生機制決定於大氣、海洋、陸表交互作用的過程，了解這些過程以及各主要變異模態對全球和區域氣候的影響是發展氣候預測的科學基礎。
本課程著重在時間尺度在三十年之內的氣候自然變化和預測，不包含尺度更長的氣候變遷或人為因素對氣候影響等課題。主要對象為碩博士班研究生，側重了解氣候變異主模態的現象與形成機制，氣候模式對氣候變異的模擬和預測能力，氣候可預測度來源的分析與解釋，氣候變異主模態與東南亞和西北太平洋以及臺灣天氣與氣候的關係。約三分之二的課程內容為講述動力氣候基本概念與文獻閱讀和討論，另三分之一為全球觀測和預測資料分析及討論。為加強對課程內容的了解，將有作業和期中考試，也將由學生在課程範圍內自己挑選想深入了解的研究題目在課堂討論並撰寫期末報告。

熱帶氣候動力專題(1)-MJO

盧孟明

1

This is an advanced Tropical Climate Dynamics course intended for graduate students. It will introduce key observational phenomena in tropics, and discuss dynamic mechanisms behind the observed phenomena. We plan to cover four topics (MJO, Monsoon, ENSO, Climate mean state) in successive four semesters. For this semester the special topic is MJO and the course outline is as following:
1. Observed characteristics
2. Eastward propagation and planetary scale selection
3. Northward propagation in boreal summer
4. Initiation
5. Role of air-sea interaction and inter-annual variation

熱帶氣候動力專題(2)-BSISO

盧孟明

1

This is an advanced Tropical Climate Dynamics course intended for graduate students. It will introduce key observational phenomena in tropics, and discuss dynamic mechanisms behind the observed phenomena. We already covered the topic of MJO in 2018 Spring Semester and plan to continue covering four topics (BSISO, Monsoon, ENSO, Climate mean state) in successive four semesters.
For this semester (Fall 2019) the special topic is BSISO and the course outline is as following:
1. Observed characteristics
2. Propagation and planetary scale selection
3. Initiation process
4. Role of air-sea and air-land interaction and interannual variation

R程式語言及其在大氣模式資料分析的應用

盧孟明

1

This course is to provide students a basic understanding of R programing. We will first introduce software installation and configuration for a statistical programming environment and generic programming concepts. Then we will cover practical issues in statistical analysis for weather forecast model data.

大氣觀測實作(二)

林博雄

2

本課程延伸「大氣測計學」必修課程，透過本系教學觀測設備(小型風力發電機太陽能光電電池等套件)，在觀測坪戶外組裝並分析即時風場與太陽能輻射觀測資料，來實際診斷氣象與綠色能源的關聯與累積實作經驗；此外, 也配合本系教師所接受的政府委託計畫之相關戶外氣象觀測活動，進行密集式觀測實作，讓修課學生體驗氣象資料蒐集過程和可能面對的戶外環境挑戰，以及原始資料後端處理程序。

雲動力學

吳健銘

3

This course focuses on the general dynamics of cloud systems. Models of fog, stratocumulus, shallow cumulus, deep cumulus, and orographic convection will be presented. Classes will include presentations by the instructor and students. Material covered in class will be supplemented by homework assignments, which require coding abilities. Numerical simulations of idealized convective systems will be conduced using the vector vorticity equation cloud resolving model (VVM). The class will conclude with student presentations on a chosen project based on the results of the numerical simulations.
Class discussions will be held at the end of each topic or main subsection to discuss science questions arising from the material just presented. Each student is expected to have thought about such questions independently and be able to present these in class if called on.

地球系統模式—物理過程

吳健銘

3

本課程將介紹地球系統模式之對流過程並分單元授課。主要介紹如何在大尺度模式中表示積雲對流的過程，將使用高解析大渦模式(LES),雲解析模式(CRM), 之模擬結果簡化成概念模式。課程內容包含講演與模式實作與分析。將分為下述課題: 乾對流過程、淺對流過程、深對流過程、大渦模式與雲解析模式之介紹

 陸地大氣交互作用

羅敏輝

 3

Feedbacks between land and atmosphere play a central role in the interactive functioning of the Earth's climate. The goal of this course is to understand the essential aspects of roles of land processes in the climate systems. Topics covered include: (1) basics of terrestrial surface energy, water and carbon balances, (2) ecohydrology, and (3) land use and land cover changes. Students will read several critical papers in these topics, and will also learn to design, perform, and analyze numerical climate experiments/outputs with a land surface model and climate model for their final project.

中尺度氣象學

游政谷

2

隨著近年來觀測儀器(技術)的進步以及高解析度數值模式的廣泛應用，使得我們慢慢了解到，較劇烈且具傷害力的天氣現象(如強烈降水與風暴)常侷限於中小尺度的範疇。可是由於發生這些劇烈天氣的原因相當多樣化且複雜，傳統的綜觀氣象理論基礎已無法滿足我們對於這些現象的了解。本課程的主要目的為介紹實際大氣中的中尺度天氣現象，並就各種不同的中尺度天氣系統，廣泛說明它們內部的結構與隱含的物理與動力過程。這其中，現階段的了解為授課重心，然而目前最新的研究成果也會在課堂上適時予以補充說明。課程內容將針對下列主題作有系統的闡釋：(1)中尺度的基本概念 、(2)中尺度天氣現象的觀測分析與預報、(3)大氣對流的觀念、(4)中緯度及熱帶中尺度對流系統、(5)劇烈風暴、(6)鋒面的中尺度特徵與其伴隨的雨帶。

地物流力

陳世楠 / 林和

3

This is an upper-level undergraduate and graduate-level course on geophysical waves and instability. We will focus on slowly evolving flow that is nearly in geostrophic balance and thus satisfies the “Quasi-geostrophic (QG) approximation”. The primary subjects are:

1. QG
2. Rossby wave
3. Baroclinic instability
4. Wave-mean-flow interactions

The course format is a combination of lectures and student project, with student-led presentation/ discussion.

雲與環境專題討論

陳維婷

3

本課程主旨在研究「冬季風環境下近海對流」之特性及其在天氣與氣候中之重要性。
經由對觀測、模擬、理論三方面之深層剖析，全面瞭解冬季風環境下近海對流與環境條件、邊界層、雲物理、輻射收支、大尺度環流、全球氣候之交互作用，以及其中牽涉之物理過程。

氣候變遷科學

陳維婷

3

• This course provides a solid foundation in climate change science, including lectures on the physical basis of anthropogenic climate change, natural climate variations, and global climate models.
• The students need to work on projects to obtain a hands-on experience on building toy models and analyzing the observational data sets and global model outputs.
• The student will read and present selected sections of the 2013 IPCC 5th Assessment Report (AR5) of Working Group I Physical Basis, as well as the related literatures, to understand the current status of climate change research.

Prerequisite on student levels:
• 4th-year undergrad or above in Atmospheric Sciences major, or upon the approval of the instructor.
• The students need to have basic capabilities to analyze and/or visualize numerical data using scientific software/programming language, such as FORTRAN, GrADS, IDL, Matlab, or NCL.
• They also need to have basic understandings to the earth system sciences, atmospheric thermodynamics and radiation, statistics, and climatology.

大氣科學研究導論

各教師

2

介紹大氣科學的研究內容、方法、成果及展望。課程依本系之主要學程/領域，即天氣動力領域、氣候系統領域、大氣環境領域、大氣資訊領域等四大領域相關研究進行介紹，以使學生對於大氣科學整體研究之現況及展望，有宏觀及較深入之了解，並作為學生未來選擇大氣科學研究之參考。本課程定位為大四所開”獨立研究”之先修課程，由本系各不同專長之教授合開，並將透過學生與相關授課老師之互動，提昇學生對於大氣科學各面相主流研究與應用之認知與興趣。

獨立研究

各教師

2

由各指導老師應學生要求，針對學生在大氣科學某方面之興趣，指導學生從事研究、撰寫讀書報告。

學士論文

各教師

2

由各指導老師應學生要求，針對學生在大氣科學某方面之興趣，指導學生從事研究撰寫正式論文。

大一上

大一下

大二上

大二下

大三上

大三下

學群共同必修

33學分

微積分1+2(4)
大氣科學概論(2)
程式與科學計算(2)

微積分3+4(4)
大氣熱力學(3)

應用數學一(3)
雲物理學(2)
大氣測計學(3)

統計與大氣科學(2)
大氣動力學一(3)
大氣輻射學(2)

天氣學一(2)
天氣學實習一(1)

天氣氣候必修

17學分

數值分析(2)

應用數學二(3)

大氣動力學二(3)

天氣學二(2)
天氣學實習二(1)
氣候學(3)
數值天氣預報(3)

大氣環境化學必修

17學分

普化甲上+實(4)

普化甲下+實(4)

大氣化學(3)

大氣物理化學(3)

生地化循環與氣候(3)

天氣氣候必選群組
（須選擇10學分）

普物甲上（3）、普物甲下（3）、高等大氣動力學（3）、中尺度氣象學（2）、動力氣候學（3）、全球大氣環流（3）、氣候變遷科學（2）、陸地大氣交互作用（3）、雲動力學（3）、雲與環境（3）、地物流力（3）

Research Track、Tool Track

大氣環境化學必選群組
（須選擇10學分）

必選修課程（至少選 7 學分）：有機化學（3）、分析化學（2-3）、物理化學（3）、應用數學二（3）、天氣學二+實習二（3）

選修群組：普物上+普物實驗（4）、普物下+普物實驗（4）、數值分析（2）、地物流力（3）、雲動力學（3）、雲與環境（3）、陸地大氣交互作用（3）、生物氣象學（3）、大氣化學實作（2）、空氣汙染實作（2）、大氣動力學二（3）、氣候學（3）、氣候變遷科學（2）

Research Track、Tool Track

學程名稱

學程標示

1.0學群共同必修

2.1天氣氣候學程必修

2.2大氣環境化學學程必修

大一

課程名稱

教 師

學分

內 容 介 紹

大氣科學概論(Introduction to Atmospheric Chemistry)

吳俊傑
(吳健銘、羅敏輝、陳維婷、黃彥婷合授)

2

本課程主要針對大氣科學系大一新生提供整體大氣科學課程、研究及未來發展之完整與前瞻概念，引導及啟發學生在大氣科學領域學習興趣，以利銜接大氣科學系後續之相關課程。
透過課堂前後以及課堂上師生問答互動，啟發學生對於大氣科學思考以及尋找與解決問題的能力，並培養日後學習進階課程的基礎。

程式與科學計算(Program and Scientific Computing)

陳維婷

2

大氣科學相關研究經常需要撰寫程式進行模擬與分析繪圖。本課程是針對大氣系同學未來在研究、學習上可能遇到的科學運算及繪圖需求而設計。
選取三種大氣科學常用程式語言及軟體工具（Fortran, GrADS, Matlab），透過講解、範例與密集上機操作，培養使用工具解決問題的能力、建立清楚的程式架構概念、獲得具體實作的經驗。

數值分析(Numerical Analysis)

羅敏輝教授

2

介紹在科學與工程上常用的數值方法與其理論基礎，並比較各方法的優缺點。此課程同時借助MATLAB軟體進行實習。

大氣熱力學(Atmospheric Thermodynamics)

吳健銘

3

本課程將涵蓋一些古典熱力學之基本定律，包括狀態方程、功、內能、第一定律、第二定律、熱容量、潛熱、卡諾循環、Clausius-Clapeyron方程、絕熱率。課程核心主要著重在水和水的相變所造成的影響，包含大氣穩定度、浮力、可用位能、氣塊混合、大氣熱力圖，以及雲的形成。

大二

課程名稱

教 師

學分

內 容 介 紹

應用數學一(Applied Mathematics (Ⅰ))

3

數學的本質與數學建模 、向量空間、線性組合、線性獨立與相依、基底、維度、座標、直交化 、內積、外積、內積空間（賦範空間、距離空間）、線性變換、矩陣、行列式、特徵多項式、固有值、固有向量、對角化矩陣、對稱矩陣、正交矩陣
向量微分：方向導數、偏微分、全微分、梯度（gradient）
向量積分：Green定理、Gauss Divergence定理、Stoke定理
一階常微分方程：separable equation、exact equation、linear equation、初始值問題、高階常微分方程：齊次微分方程、非齊次微分方程（undetermined coefficient method、variation of parameter method ） 、Laplace變換、利用Laplace 變換解常係數微分方程、無窮級數解、特殊函數、近似解、線性系統：算子方法、固有值方法、Laplace 變換法

應用數學二(Applied Mathematics (Ⅱ))

3

Sturm Liouville theory,Fourier 級數, Fourier 變換及應用它們解wave equation, heat equation及Laplace equation
了解如何建構無窮維向量空間C[a,b]上的基底,知道如何利用Fourier series及 transform方法、解偏微分方程

雲物理學(Cloud Physics)

陳正平教授

2

本課程介紹大氣中各種成雲與降水機制，如雲的尺度與結構、基本熱力學、 雲滴的形成與成長、冰晶的形成與成長、雨滴的形成與成長、雪、霰與冰雹的形成與成長、降水過程與降水效率、雲與降水的遙測、強烈對流與雷電過程、雲之數值模擬。

大氣測計學 (Atmospheric Measurement and Instrumentation)

林博雄教授

3

本課程首先介紹大氣觀測需求、儀器原理與觀測方法，以及各種量測標準，然後介紹各種地面氣象要素,與觀測，再分述各種高空氣象觀測之現況與發展。

大氣動力學一(Atmospheric Dynamics (Ⅰ))

吳俊傑

3

大氣輻射學(Atmospheric Radiation)

林依依

2

太陽和地球的輻射是地球系統的主要能量源及匯，太陽的短波輻射與地球大氣的長波輻射；當它們在大氣中傳播時與大氣及地面互相作用產生吸收，散射與反射 。另外地面與大氣的輻射能量收支不平衡使地面和空氣的溫度發生變化，形成熱源與冷源推動了大氣的運動和變化。因而研究天氣變化和氣侯形成及演變必須要對大氣輻射有充份的了解。再者氣象衛星和遙測技術的開發皆以輻射理論為基礎，因而大氣輻射學為大氣科學系學生所必備的。

統計與大氣科學(Statistics with Meteorological Applications)

羅敏輝教授
(與盧孟明教授合授)

2

Data statistical analysis is essential to research and applications in atmospheric/climate Sciences.
Students of this course will learn step by step various theories and methods of basic data statistical analysis which usually be applied in atmospheric sciences.

大氣化學(Atmospheric Chemistry)

洪惠敏

3

大三

課程名稱

教 師

學分

內 容 介 紹

大氣動力學二(Atmospheric Dynamics (Ⅱ))

郭鴻基

3

大氣物理化學(Atmospheric Physical Chemistry)

陳正平教授

3

天氣學一(Synoptic Meteorology (Ⅰ))

楊明仁、陳維婷

2

天氣學實習一(Lab. of Synoptic Meteorology (Ⅰ))

楊明仁、陳維婷

1

本課程之目的在使同學實際練習操作各種天氣資訊接收、顯示系統（尤其是WINS系統），並熟習如何利用所接收的天氣資訊和各類天氣圖（如地面天氣圖、高空天氣圖、探空圖、衛星雲圖、雷達圖等），進行診斷分析，探討天氣系統的形成、發展與運動；此外，並針對實際發生的天氣現象探討導致該天氣現象發生的物理原因。

天氣學二(Synoptic Meteorology (Ⅱ))

游政谷

2

天氣學實習二(Lab. of Synoptic Meteorology (Ⅱ))

游政谷

1

有關區域天氣現象和天氣預報部份探討。

氣候學 (Climatology)

黃彥婷

3

本課程探討地球氣候如何以及為何產生。我們不僅將介紹地球上每個地區的 典型天氣狀況，還將介紹氣候的統計數據在整個地球歷史上在地理上甚至在時間上如何變化以及為什麼變化 。為了了解氣候系統的工作原理，本課程討論了輻射傳遞，流體動力學和熱力學的概念， 重點是概述了對塑造和維持地表氣候至關重要的一些物理平衡 ：能量平衡及其在氣候變化中的作用。控制溫度；水文循環及其在控制濕度和乾旱中的作用；角動量平衡及其在控制風中的作用。

This course explores how and why Earth’s climate comes about. We will not only introduce what a typical weather condition is over each region on Earth, but also how and why climate, statistic of weather, varies geographically and even temporally throughout the earth’s history. To understand how climate system works, this course discuss concepts of radiative transfer, fluid dynamics, and thermodynamics, with an emphasis of providing an overview of a few physical balances that are important for shaping and maintaining the surface climate: energy balance and its role in controlling temperatures; the hydrologic cycle and its role in controlling humidity and aridity; angular momentum balance and its role in controlling winds.

數值天氣預報(Numerical Weather Prediction)

楊明仁

3

Lecture Outline:
1. Numerical approximation, finite differencing
2. Accuracy, stability, and convergence
3. Time-differencing
4. Space-differencing
5. Combined time- and space-differencing
6. WRF model introduction and applications

生地化循環與氣候(Biogeochemistry and Climate)

洪惠敏

3