ESPM 129, BIOMETEOROLOGY:

Plant-Ecosystem-Atmosphere Interactions

 

credit, Terry Steinke

 

Instructor:

Dennis Baldocchi
Professor of Biometeorology
Ecosystem Science Division
Department of Environmental Science, Policy and Management
& Berkeley Atmospheric Science Center
345 Hilgard Hall
University of California, Berkeley
Berkeley, CA 94720

Email: Baldocchi@berkeley.edu
Phone: 510-642-2874
Fax: 510-643-5098
Web Site: http://nature.berkeley.edu/biometlab

 

version Oct 25, 2010

Course Description

In this course we study the 'Breathing' of the Terrestrial Biosphere. This is accomplished by describes the physical environment (light, wind, temperature, humidity) about plants and the soil, by understanding how the physical environment affects the physiological status plants and how status and capacity of plants and the underying soil affect their physical environment. Hence, the nature of this course is very multi- and intra disciplinary, drawing on aspects of micrometeorology, soil physics, physiological ecology, ecosystem ecology and biogeochemistry. This course accomplishes its goals by examining the physical, biological and chemical processes that affect the transfer of momentum, energy and material (water, CO2, and atmospheric trace gases) between vegetation and the atmosphere. Instrumentation and measurements, associated with the study of plant biometeorology, are also discussed.

Course Schedule and Student Involvement

The class will meet three times per week (MWF 1-2) at 306 Wellman Hall. Hour lectures will be presented. Discussion and questions by the class is encouraged.

Grading: 1000 pts

midterm I: 250 pt

midterm II: 250 pt

5 homework assignments, 250 pt (50 pts each)

Final: 250 pts

.

Class Lecture Material, Web Page and Figures

Attendence and Class Participation is strongly encouraged.

Pdf copies of lecture overheads and material that augments the lectures is available for downloading on a lecture by lecture basis from the following table.

One source of data for assignments is the FLUXNET web page (Fluxnet Web page); scientists, from throughout the world are posting their data on canopy microclimate and mass and energy fluxes. Other homework assignments will involve numerical calculations and solving problem sets.

Course material is available on:

bspace or

http://nature.berkeley.edu/biometlab/espm129

A Reference Textbook is

Campbell and Norman. An Introduction to Environmental Biophysics.

 

Lecture

Topic

Date

Overheads Lecture Notes

Assignment

Unit 1

Plant and Atmospheric Characteristics

 

   

 

1

Introduction, Overview

August 27

 

2

Characterizing Vegetation Canopies, Part I, plant canopy structure and function, leaf area index

August 30

 

3

Characterizing Vegetation Canopies, Part II, Canopy Structure, Height, Leaf Angle

Sept 1

H1. Measure leaf angle distribution

4

Characterizing Vegetation Canopies, Part III, Global distribution and Phenology

Sept 3

 

5

Solar Radiation, Part I, Theory and Principles

Sept 8

 

6

Solar Radiation, Part II, Theory and Principles

Sept 10

 

7

Solar Radiation, Part III, Theory and Principles Earth-Sun Geometry

Sept 13

H2. Compute Sun Angles

8

Radiative Transfer through Vegetation, Part 1, Theory and Observation

Sept 15

 

9

Radiative Transfer through Vegetation, Part 2, Theory and Observations

Sept 17

 

10

Radiative Transfer through Vegetation, Part 3, Theory and Observations

Sept 20

 

 

Midterm

Sept 22

   

 

11

Temperature and Thermodynamics, part 1

Sept 24

 

12

Temperature and Thermodynamics, part 2

Sept 27

 

13

Temperature and Thermodynamics, part 3

Sept 29

 

14

Humidity, Pressure and Trace Gas ,part 1

Oct 1

 

15

Humidity, Pressure and Trace Gases, part 2

Oct 4

 

16

Wind and Turbulence, Part 1: Surface Boundary Layer, Theory

Oct 6

 

17

Wind and Turbulence, Part 2: Surface Boundary Layer, Theory and Observations

Oct 8

H3. Wind Profile Computations

18

Wind and Turbulence, Part 3: Surface Boundary Layer, Observations

Oct 11

 

19

Wind and Turbulence, Part 4: Surface Boundary Layer, Observations

Oct 13

 

20

Wind and Turbulence, Part 1: Canopy Air Space: Theory and Observation

Oct 15

 

21

Wind and Turbulence, Part 2: Canopy Air Space: Theory and Observation

Oct 18

Guest lecturer

 

Midterm

Oct 20

   

 

22

Instrumentation and Meteorological Measurements

Oct 22

 

 

 

 

 

   

 

Unit 3

Mass and Energy Exchange

 

   

 

 

 

 

   

 

23

Concepts of Flux and Mass Conservation, Part 1

Oct 25

 

24

Concepts of Flux and Mass Conservation, Part 2

Oct 27

   

H4. Conservation of Mass Assignment

25

Leaf Boundary Layers and their Resistances

Oct 29

 

26

Leaf Energy Balance, part 1

Nov 1

 

27

Leaf Energy Balance, Part 2

Nov 3

 

28

Stomatal Conductance, part 1

Nov 5

 

29

Stomatal Conductance, part 2

Nov 8

 

30

Stomatal Conductance, part 3

Nov 10

 

32

Canopy Evaporation and Transpiration, Theory, part 1

Nov 12

 

33

Canopy Evaporation and Transpiration, Theory, part 2

Nov 15

H5. Energy Balance Computations

34

Soil Physics, temperature and moisture, observations

Nov 17

 

35

Soil Physics, temperature and moisture, observations

Nov 19

 

36

CO 2, Canopy photosynthesis and soil respiration, Concepts and Observations, part 1

Nov 22

 

 

37

CO 2, Canopy photosynthesis and soil respiration, Observations, part 2

Nov 24

   

 

 

Thanksgiving Break

Nov 26

   

 

38

CO 2, Canopy photosynthesis and soil respiration, Observations, part 3

Nov 29

   

 

39

Land-Atmosphere Interactions

Dec 1

   

 

40

Midterm

Dec 3

   

 

 

 

 

   

 

 

 

 

   

 

 

 

 

   

 

 

Final, group