Module Code and Title: CLM101
Climate Change
Programme: BSc in Environmental Management
Credit Value: 12
Module Tutor(s): Kinley
Dorji (Coordinator), Bikram Sharma, GP Sharma
General objective: This module introduces
students to the fundamentals of weather and climate to enhance their understanding
of the Earth's changing climate and its underlying causes. Students will learn
about the impacts of climate change on various facets of livelihoods like food
security and public health, along with potential mitigation and adaptation
measures applicable for managing climate change.
Learning Outcomes – On completion of the module, students
will be able to:
- Describe
the elements of weather and climate.
- Analyse
various weather variables for scientific purposes.
- Identify possible
factors affecting the climate.
- Discuss
climate change and its possible causes.
- Explain
the relationship between human activities and climate change.
- Analyse
the impacts of climate change on human well-being and the natural world.
- Explain
the principles of climate change vulnerability assessment.
- Discuss
the applications of dendrochronology in climate science studies.
Learning and Teaching
Approach:
Type
|
Approach
|
Hours per week
|
Total credit
hours
|
Contact
|
Lectures
|
3
|
75
|
Discussions and in-class exercises
|
1
|
Field practical work
|
1
|
Independent study
|
Written assignments
|
1
|
45
|
Reading and review of class materials
|
2
|
Total
|
120
|
Assessment Approach:
- In-class group exercises (written): 10%
Students
will undertake two in-class written exercises (5% each) in small groups of 3-4
focusing on answering questions based on readings. Students will be given an
entire class period (50 min) to complete the exercises. These questions should require students to deliver clear and accurate
summaries and identify main arguments as well as how these arguments have been
supported. The written submissions will be marked on the correctness of the
answers.
- In-class group exercises (discussion): 10%
Students
will undertake two in-class discussion exercises (5% each) in small groups of
3-4 focusing on addressing given discussion topics. The groups will be given different case studies among the following broad areas: 1.
Global Climate Models, 2. Global Climate Change, Impacts of Climate Change on
the natural world and human wellbeing, and 4. Measurement of Climate Change. The
groups will share their case analyses using PowerPoint Presentation of about 10
minutes with the class. This exercise, with immediate guidance from the tutor,
should enable students to learn about techniques to identify, analyse,
interpret and discuss the different case studies.
2% Summary of main ideas of the
overall broad topic area and cohesive discussion on the specific questions
posed by the tutor within the broad topic (group score)
3% Content and
delivery of individual discussion points (individually scored)
- Meteorological data collection and analysis: 15%
Part 1: Students will be asked in turn to take care and
keep a daily record of readings from the college meteorological station using a
spreadsheet thrice a day (800 – 1300 – 1800 hours). Numerous instruments will
be read including the Campbell Sunshine Recorder, Evaporation Pan, Anemometer,
Wind Vane, Barometer, Hygrometer, Maximum/Minimum Thermometer, Dry and Wet Bulb
Thermometer, Soil Thermometer and Rain Gauge for a record of at least three
months. This assessment focuses on giving a hands-on-practice to collect data
from various instruments measuring various weather variables. From the
collected data, the various aspects of the weather will be displayed in class,
for a day, a week and a month. Individuals will be assessed on:
2% Correct and timely collection
2% Correct and timely display in the classroom
4% Maintenance of spreadsheet
Part 2: The class will be divided into groups of four
students. Each group will be given overall data (of three months) collected
from one of the aforementioned instruments measuring an aspect (variable) of
weather. Students will perform some statistical analyses like mean, standard
deviation, correlation and regression to gain better insight into
characterizing the cumulative weather phenomena. After the analyses, within a
week, students will produce a report of 500-750 words towards the end of the
semester along with all appropriate tables and graphs.
3% Content
3% Analysis
1% Language and Grammar
- Written assignment: 10%
The students will be (individually) asked to write a review
paper of 750-1000 words. They will be given a collection of scientific
documentary films from which to draw on about climate change. The review will
be based on one selected documentary. This exercise will keep the students
abreast of recent development in the field of climate change.
4% Review of the article (all the major points/main
ideas of the article selected and discussed with supporting details)
3% Organization and Writing (articulate and good build
of arguments, well organised, good flow and coherence)
3% Mechanics (Language and referencing)
- Midterm Examination: 15%
Students will take a
written exam of 1.5-hr duration covering topics up to the mid-point of the
semester. The exam will comprise structured questions like MCQ,
fill-in-the-blanks, matching, definition, as well as open-ended essay
questions.
- Semester-End
Examination: 40%
Students will take a written exam of
2.5-hr duration encompassing all the subject matter covered in the semester.
This assessment is comprehensive and summative in nature, and will comprise
structured questions like MCQ, fill-in-the-blanks, matching, definition, as
well as open-ended essay questions.
Overview
of assessment approaches and weighting
Areas of
assignments
|
Quantity
|
Weighting
|
A.
In-class group exercises (written)
|
2
|
10%
|
B.
In-class group exercises (discussion)
|
2
|
10%
|
C.
Meteorological data collection and
analysis
|
1
|
15%
|
D.
Written Assignment
|
1
|
10%
|
E.
Midterm Examination
|
1
|
15%
|
Total Continuous Assessment (CA)
|
|
60%
|
Semester-end Examination (SE)
|
|
40%
|
Pre-requisites: None
Subject Matter:
1.
Unit I: Fundamentals
of weather and climate
1.1.
Definition of weather and climate
1.2.
Climatology and meteorology: Definition,
Scope, History
1.3.
Observation of weather variables
(Definition, recording, calculation, interpretation)
1.3.1.
Temperature
1.3.2.
Humidity
1.3.3.
Pressure
1.3.4.
Precipitation
1.3.5.
Cloud cover
1.3.6.
Sunshine
1.3.7.
Wind speed
1.3.8.
Wind direction
1.3.9.
Evaporation
1.4.
Weather Phenomena (Definition and its
relationship to weather at microscale, mesoscale, and macro-scale of an area)
1.4.1.
Fog and Frost
1.4.2.
Fronts and storms, Jet streams,
Cyclones, Tornadoes and Hurricanes
1.4.3.
Cold and Heat Waves
1.4.4. Thunderstorm: Supercell,
Derecho, and Squall Line.
1.4.5.
Winter storm: Blizzard and Ice storm
2.
Unit II: Natural factors
affecting climate
2.1.
Constitution of the atmosphere
2.1.1.
Structure of atmosphere
2.1.2.
The chemical composition of the
atmosphere
2.1.3.
The vertical profile of temperature,
pressure and density
2.2.
Solar Radiation
2.2.1.
Distribution of radiant energy from the
Sun
2.2.2.
Effects of the atmosphere
2.2.3.
Average radiation budgets
2.2.4.
Surface-energy budgets
2.3.
Atmospheric circulation
2.3.1.
Isobaric heating and cooling
2.3.2.
Adiabatic reference processes
2.3.3.
Convective stability
2.3.4.
Scales of atmospheric motion: microscale, mesoscale and synoptic
2.3.5.
The general circulation
2.4.
Ocean Currents
2.4.1.
Cold and warm currents
2.4.2.
Geostrophic flow
2.4.3.
Thermal winds
2.5.
Latitude, Elevation, and Relief
3.
Unit III: Causes of
climate changes
3.1.
Defining climate change
3.2.
Causes and factors contributing to
climate change: natural and anthropogenic
3.3.
Past, current, and future
concentrations of greenhouse gases (GHG)
3.4.
Major sectors and human activities
contributing globally to GHG emissions
3.5.
Detection and Attribution of Global
Temperature Changes
3.5.1.
Atmosphere and Surface: Temperature, Water Cycle, Atmospheric Circulation and
Patterns of Variability.
3.5.2.
Changes in Ocean Properties: Temperature, Salinity, Sea Level, Oxygen and Ocean Acidity.
3.5.3.
Cryosphere: Sea Ice, Ice Sheets, Ice Shelves and Glaciers, Snow Cover.
3.5.4.
Extremes: Attribution of Changes in Frequency/Occurrence and
Intensity of Extremes.
3.6.
Emerging strategies for addressing
climate change
3.7.
Basic concepts in climate change adaptation
and mitigation: approaches in Bhutan
4.
Unit IV: Impacts of climate
change on people and the environment
4.1.
Climate Change and Food Security
4.1.1. Effects on agriculture and food security
4.1.2. Women vulnerabilities in relation to agriculture and food security
4.1.3. Adaptation actions to reduce the negative impacts
4.1.4. Reduction of emissions from agriculture land use
4.1.5. Agricultural systems to improve food security
4.2.
Climate Change and Human Health
4.2.1. Diseases exacerbation - local, regional, and global
4.2.2. Vulnerable populations health affection
4.2.3. Adaptations on health issues, risks, and problems
5.
Unit V: Responses to climate
change
5.1.
Principle and practices of Climate
Change Vulnerability Assessment
5.1.1.
Resilience and vulnerability
5.1.2.
Elements and principles
5.1.3.
Gender sensitive vulnerability
assessment framework
5.1.4.
Vulnerability assessment results and
adaptation strategies
5.1.5.
Uncertainties associated with projected
climate change impacts
5.2.
Climate Change and ecosystem Services
5.2.1.
Framework of ecosystem services
assessment and response
5.2.2.
Emerging ecosystem markets for carbon
and watershed services
5.2.3.
Role of ecosystem-based adaptation and
mitigation solution
5.3.
Global frameworks for responding to
climate change: Paris agreement, Resilient development
6.
Unit VI:
Dendroscience as a tool to understand and measure climate change
6.1.
Introduction to tree biomass growth
6.2.
Physical and biological basis of tree
rings
6.3.
Wood anatomy, structure, and function
6.3.1.
Tree growth & woody tissue
6.3.2.
Composition & structure of wood
cells
6.3.3.
Softwood structure
6.3.4.
Hardwood structure
6.4.
Weather, climate and tree growth
6.5.
Growth Stresses and Strains in Trees
6.6.
Mechanistic model of
tree-ring growth
List of
practical work:
a. Students will visit the college meteorological station in turns and
record the daily readings from instruments measuring different elements of the
weather (using Campbell Sunshine Recorder, Evaporation Pan, Anemometer, Wind
Vane, Barometer, Hygrometer, Maximum/Minimum Thermometer, Dry and Wet Bulb
Thermometer, Soil Thermometer and Rain Gauge).
Reading List:
Essential
Reading
Creasman, P. P. (2011). Basic principles
and methods of dendrochronological specimen curation. Tree-Ring Research, 67(2),
103-115.
DiMento, J. F. C., & Doughman, P. (Eds.)
(2007). Climate change: What it means for us, our children, and our
grandchildren. Cambridge, MA: The MIT Press.
McIlveen, J. F. R. (2010). Fundamentals
of weather and climate (2nd ed.). Berlin, Germany: Springer – Science +
Business Media.
Ugyen Wangchuck Institute for
Conservation and Environmental Research. (2017). Dendrochronology manual.
Bumthang, Bhutan: UWICER Press.
Northern Light Production (2021, January
10). Climate emergency: Feedback loops [Video].
https://feedbackloopsclimate.com/
Additional Reading
Intergovernmental Panel on Climate Change (2018). Special
report: Global warming of 1.5°C. Geneva: Intergovernmental Panel on Climate
Change.
Intergovernmental Panel on Climate Change (2018). Climate
change and land. Geneva: Intergovernmental Panel on Climate Change.
Intergovernmental Panel on Climate Change (2014). Climate
change 2014: Synthesis report: climate change 2014. Geneva:
Intergovernmental Panel on Climate Change.
Intergovernmental Panel on Climate Change (2014). AR5
Climate Change 2014: Impacts, Adaptation and Vulnerability. Geneva:
Intergovernmental Panel on Climate Change.
Houghton, J. (2015). Global warming: The complete
briefing (5th ed.). New York, NY: Cambridge University Press.
Krusic, P.J., Cook, E.R., Dukpa, D., Putnam, A.E., Rupper,
S., & Schaefer, J. (2015). Six hundred thirty-eight years of summer
temperature variability over the Bhutanese Himalaya. Geophysical Research
Letters, 42, 2988 – 2994. DOI: 10.1002/2015GL063566
Lovejoy, T.E., Hannah, L., & Wilson, E.O. (Eds.).
(2019). Biodiversity and climate change: Transforming the biosphere.
London, England: Yale UnivEn410ersity Press.
Press, S., & Rennenboog, R. (2018). Principles of
climatology. Hackensack, NJ: Salem Press.
Schweingruber, F. H. (1989). Tree rings: Basics and
applications of dendrochronology. Amsterdam, Netherlands: Kluwer Academic
Publishers.
Date: June 2021