English বাংলা
MS Course Curriculum
Minimum Course and Research Requirement for MS Degree1
A.
Major Courses |
Cr. |
Minor
Courses |
Cr. |
|
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1a.
Core |
12 |
2a.
Core |
3 |
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AGM
501 |
General
Climatology |
3 |
STT 540 |
Statistical
Methods for Agrometeorology |
3 |
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AGM
515 |
Principles
of Agrometeorology |
3 |
|
|
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AGM 561 |
Crop-Weather Relationships
|
3 |
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AGM 590 |
Weather Forecasting & Agro-Advisory |
3 |
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1b. Elective |
9 |
2b. Elective |
6 |
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AGM518 |
Hydro-Meteorology |
3 |
STT 510 |
Design of Experiments |
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AGM 525 |
Agrometeorological
Measurements and Instrumentation |
|
AFE 602 |
Forest Ecology |
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AGM 540 |
Soil Water
Climatology |
|
CBT 503 |
Plant Physiology |
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AGM 541 |
Crop
Micrometeorology |
|
ENT 502 |
Insect
Ecology |
|
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AGM 545 |
Applied Agrometeorology |
3 |
ENS 510 |
Environmental Pollution & Agriculture |
|
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AGM 555 |
Climate Change |
3 |
AGE514 |
Drainage of Agricultural Lands |
|
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AGM 570 |
Remote Sensing and GIS in
Agrometeorology |
3 |
AGR656 |
Rainfed Agronomy |
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AGM 580 |
Crop Weather Modelling |
3 |
|
Other Courses2 |
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AGM 680 |
Weather Risk Management |
3 |
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B. Seminar |
1 |
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AGM 598 |
Seminar |
1 |
|
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C. Thesis Research |
12 |
|
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AGM 599 |
Thesis Research
Variable |
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Total Credit Hour |
34 |
|
|
09 |
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Grand Total |
43 |
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1Degree requirements may
be changed on the recommendation of BOS and the Student's Advisory Committee
2Approved by the Student's
Advisory Committee
Introduction to
General Climatology and meteorological services; Atmospheric vertical
structure; Pressure variation, general circulation & turbulence; Gas laws,
vapor pressure and lapse rates; Clouds and hydrologic cycle; Air masses and
fronts; Tropical and extra-tropical cyclones; Earth’s rotation, radiation and thermal
balance; Climatic classification; Climatic models; Monsoon: Origin, types,
onset, advancement and retreat.
Agricultural
meteorology: Concept, scope and components; Agro-climatic classification,
agro-climatic zones and agro-ecological regions of Bangladesh; Basics of
meteorological parameters in agriculture; Water balance in ecosystems;
Soil-water balance models and water production functions; Radiation physics;
Concept of growing degree days; Solar energy conversion into dry matter
production; Climate change impacts on agriculture; Environmental pollution and
crop productivity; Major abiotic stresses affecting agricultural production:
Concepts, types, causes and prediction; Crop stress detection; Crop weather
calendar.
Weather elements
on crop growth and development: Crop response to radiation, temperature,
moisture, wind and humidity; Radiation use efficiency; Effect of soil moisture
and temperature on seed germination and root growth; Physiological basis of
crop stresses; Rhizosphere and microorganisms in relation to weather;
Fertilizer and water use efficiency; Meteorological indices to predict crop
production; Crop-pest-weather relationship: Competition and interaction of
major agricultural crops and agroforestry systems with biotic and abiotic
stresses; Agro-climatic indices and their estimation for crops; Crop
performance in different ecosystems.
Weather forecasting
systems: Concept, scope and importance; Types of forecasting; Weather
forecasting network; Approaches for weather forecasts: Methods of weather
forecasts - synoptic, numerical prediction, statistical, analogue, persistence
and climatological approach; Indigenous Technical Knowledge (ITK) based
forecasting; Methods of verification of location-specific weather forecast;
Weather-based advisories: Interpretation of weather forecasts for farm
operations, pest and disease development and epidemics, and crop production;
Preparation of weather-based advisories and dissemination; Exercise on weather
forecasting for various applications; Preparation of weather forecast based
agro-advisories by using various approaches and synoptic charts.
Hydrologic cycle:
Evaporation process, forms and types of precipitation, measurement and
estimation techniques, temporal and areal variation of precipitation; Stream
flow measurement, planning of stream flow network; Runoff: Components and
classification, annual runoff volumes, estimating storm runoff volumes;
Hydrographs: Recession curves, hydrograph separation, unit hydrograph concept,
techniques of hydrological routing through watersheds, reservoirs and channels;
Probability Analysis: Probability distributions, analytical and graphical
methods of flood frequency analysis, low-flow analysis, estimation of
dependable rainfall; Reservoirs: Physical characteristics, yield, capacity,
sedimentation and site selection.
Fundamentals of
measurement techniques; Working principles of meteorological instruments;
Introduction to barometers, thermometers, psychrometers, hygrometer, and
thermohygrograph; Introduction to radiation and temperature measurement
instruments; Introduction to instruments used for measuring soil moisture; Soil
thermometers, soil heat flux plates; Introduction to automatic weather station;
Working principles of data logger, data sensors and nano-sensors for
measurement of weather variables; Computation and interpretation of weather
data; analysis of automatic weather station data; Exposure and operation of
meteorological instruments in AGROMET observatories.
Soil-plant-water
relationship; Theories of evapotranspiration (ET) and their comparison,
consumptive use, concepts of potential, reference and actual ET, plant, soil
and cultural factors effect on ET; Measurement of ET: climatological method,
aerodynamic, eddy correlation, energy balance, combination energy balance
aerodynamics, turbulence measurement; Measurement of actual evapotranspiration;
Soil moisture depletion studies, water balance method and other empirical
methods, modified techniques of ET estimation and their applications;
Computation of ET: energy balance method, aerodynamic method, Penman method,
satellite remote sensing data and other methods; Crop coefficients; Irrigation
scheduling; Water use efficiency; Estimation of ET through satellite imageries.
Microclimate near
the bare ground, unstable and inversion layers; Micrometeorology of plant
canopies: Distribution, utilization and biological effects of radiation,
temperature, humidity, vapour pressure, wind and carbon dioxide; Quantification
and measurements of crop microclimate; Variation in microclimate under
irrigated and rainfed conditions, soil moisture and temperature variation with
depth; Modification of microclimate due to cultural practices and
intercropping; Influence of topography on microclimate; Effects of ambient
weather conditions on growth, development, and yield of crops; Measurement of
global and diffuse radiation; Measurement of albedo over natural surfaces and
cropped surfaces; Net radiation measurement at different levels; PAR
distribution in plant canopies and interception including wind, temperature and
humidity profiles in short and tall crops; Energy balance over crops, LAI and
biomass estimation.
Precipitation
indices; Climatic water budget: potential and actual evapotranspiration and
their computation; Measurement of precipitation, calculation of water surplus
and deficit, computation of water budget and their applications, preparation of
climatic water budget, assessment of dry and wet spells, available soil
moisture, moisture adequacy index and their applications; Agroclimatic indices
and their application: thermal indices and phenology, cardinal temperatures;
Heat unit and growing degree day concepts for crop phenology, crop growth and
development; Insect-pest development; Crop weather calendars; Agro-climatic
requirement of crops; Assessment of frequency of disastrous events; Bioclimatic
concepts: evaluation of human comfort, cold surge index, heat stress index,
comfort indices and clothing insulation; Climate, housing and site orientation;
Weather-pest-disease interactions; Calculation of comfort indices and
preparation of chirograph.
Radiation, heating
and cooling the Earth, radiation balance; Atmospheric composition and global
warming during post-industrial revolution; Anthropogenic changes &
emissions of natural GHGs, and contributing to sulphate aerosols in the
troposphere; Physical basis of climate change; Human impact on the atmosphere;
Impact of agriculture on climate change; Impacts of climate change on life
systems, terrestrial and freshwater ecosystems, agriculture and food systems,
water resources, and other economic sectors; Climate models; Adaptation and
mitigation options; Policy related response to climate change; Climate change
negotiations, UN,WFCC, IPCC; Outcomes of negotiations.
Remote sensing
(RS), GIS, and GPS; Signals, sensors, and sensing systems; Remote sensing in
agrometeorology; Electromagnetic radiation and interaction with Earth’s special
features; Imaging and non-imaging systems; Framing and scanning systems;
Resolution of sensors; Data acquisition, data processing, and storage; Radar
data analysis, digital image interpretation, crop acreage and yield estimation;
Crop stress detection; Ground water inventory; Monitoring of crop disease and
pest infestation using RS and GIS techniques; Soil and land resource inventory,
LULC classification and mapping, land evaluation and crop suitability
assessment; Watershed monitoring by using RS and GIS; Crop growth and yield
modeling; Crop production forecasting; Use of spectrometer, satellite imagery
and aerial photography for computing vegetation indices.
Crop production
in relation to ecophysiology; Quantifying relationships between weather
elements and photosynthesis, respiration, and crop development; Quantifying
assimilates partitioning and growth of individual organs; Crop modelling,
types, and scope including climate change scenarios; Procedure of crop
simulation modelling: Model development, evaluation, sensitivity analysis and
experimentation with models; Requirements and processing weather data for crop
modelling; Development and working with MS Excel-based simple models with
respect to crop growth, development and disease and pest infestation;
Understanding and use of DSSAT, Oryza and APSIM model platforms; Comparing the
outputs from DSSAT, Oryza & APSIM platforms; Use of modelling output in
agrometeorological advisory services.
Reviews and
theories of weather modifications and risks; Basics of weather modifications:
clouds, hails, fog, frost, storms; Air and water pollution; Common agroclimatic
risks around the world; Characterization of weather and climate related risks
in crops; Social and economic risk factors related to weather and climate;
Approaches, tools and strategies for monitoring and prediction of agro-climatic
risks; Combating agro climatic risks using remote sensing and GIS; Adopting
mitigation practices, contingency planning and responses; Disaster risk
mainstreaming; Preparedness for weather and climate risks; Weather aberrations
and livelihood of farmers and mitigation measures to cope up the crisis;
Preparation of contingency plans against different weather vagaries; Coping
strategies including transferring risks through insurance schemes, products and
protocol development; Combining challenges to disaster risk mainstreaming,
mitigation practices; Shelter belts and wind breaks, mulches and
antitranspirants; Protection of plants against climatic hazards.
Collection and
presentation of agrometeorological data;
Measurement of central tendency, dispersion, bivariate and multivariate data
and their application in agrometeorological data analysis; Correlation and
regression analysis; Discrete and continuous probability distribution
(binomial, pois son, normal); Sampling
distribution: Chi-square, t and F distribution and their application in
significance testing of agrometeorological data; Parametric and nonparametric
tests; Basics of time series data analysis, stationary and non-stationary time
series data, AR, MA, ARMA, ARIMA and ARDL time series model and their
application in forecasting and interpretation of agrometeorological data for
decision making.