GRADUATE STUDENT HANDBOOK

Graduate Study

in

Department of Soil, Water and Environmental Science

THE UNIVERSITY OF ARIZONA

Tucson, Arizona

Mark L. Brusseau,
Graduate Program Director

Judi Ellwanger,
Graduate Program Coordinator

Jeffrey C. Silvertooth,
Department Head

World Wide Website: http://ag.arizona.edu/SWES/


For additional information contact:

Judi Ellwanger
Graduate Coordinator

PHONE: (520) 621–1646
FAX: (520) 621–1647
Email: ellwangr@ag.arizona.edu


INTRODUCTION

The Department of Soil, Water and Environmental Science (SWES) brings together a faculty of outstanding scientists, distinguished by their understanding of soil, water, and the environment, and their ability to carry out research and planning towards the solution of environmental and resource use problems. The department offers graduate work leading to the Master of Science and Doctor of Philosophy degrees in Soil, Water and Environmental Science, with focal areas in either environmental science or soil and water science. Approximately 70 graduate students are enrolled in the department. In addition, there are approximately 75 undergraduate students in the department, the majority of which are majoring in Environmental Science.

Graduate study in the Department of Soil, Water and Environmental Science is open to students with undergraduate preparation in biological, chemical, physical, earth, or engineering sciences. Students with other backgrounds can be accepted into the program, with course deficiencies noted.

Graduate research assistantships are available to students with outstanding potential. A limited number of teaching assistantships are also available.

The total enrollment at the University of Arizona is over 35,000; thus, the University is of a size that offers a wide range of academic and extra-curricular programs. Tucson is a metropolitan area of about 700,000 people situated in a desert valley ringed by mountains which rise to 3,000 meters.

The University of Arizona is an equal opportunity employer authorized to provide research, educational information and other services only to individuals and institutions that function without regard to race, color, sex or national origin.



MAJOR PROGRAM AREAS

(Instruction, Research, and Extension)
Department of Soil, Water and Environmental Science
The University of Arizona
Tucson, Arizona

The main focus of the Department is Environmental, Soil, and Water Science.

The Department research activities are focused around three areas:

1) subsurface science, with emphasis on physical, chemical, and microbiological processes;
2) environmental science, with emphasis on contaminant transport and fate, waste management/reuse, soil/groundwater remediation, and ecosystem restoration;
3) soil, plant, atmosphere systems, with emphasis on remote sensing, soil-water-plant relations, and soil genesis and morphology.


The specific program areas in the department include:

Contaminant Hydrology: Transport and fate of contaminants (organic/inorganic chemicals, and bacteria/viruses) in soil and groundwater; transport modeling

Contaminant Remediation: Pump and treat; bioremediation; soil venting; soil bioreactors; innovative technologies

Ecosystem Restoration: Phytoremediation; salt-tolerant plants; re-vegetation

Environmental Chemistry: Analytical methods; sorption of chemicals; phase partitioning

Environmental Microbiology: Biodegradation of organic compounds; molecular/genetic techniques

Remote Sensing: Remote sensing, canopy modeling, terrestrial biophysics, global change

Soil-Water-Atmosphere Relations: Evapotranspiration; irrigation; leaching; plant water stress; crop production research; spatial variability; water use efficiency

Soil and Water Quality: Hazardous-waste chemistry; salinity; soil/groundwater contamination, water-borne pathogens, water quality

Soil Biology and Biochemistry: Molecular approaches to microbial ecology; pathogen detection; rhizosphere biology; N2-fixation

Soil Fertility and Plant Nutrition: Plant responses to N and P; nitrogen movement; denitrification losses; N-tracer chemistry; nutrient availability; fertilizer use efficiency

Soil Morphology, Genesis, Classification and Survey: Micromorphology; soil mineralogy; soil mapping; soil erosion; GIS; remote sensing in soil survey

Vadose Zone Hydrology: Processes and phenomena relating to transport and retention of water, between the ground surface and permanent water table

Waste Disposal and Management: Land treatment; land reclamation; waste-water reuse; waste management; air-pollution abatement


SOIL, WATER AND ENVIRONMENTAL SCIENCE FACULTY

FACULTY RESEARCH INTERESTS

Silvertooth, Jeffrey C.
Department Head, Professor


Soil fertility, plant nutrition
Artiola, Janick F.
Associate Research Scientist

Soil, water, and waste chemistry; analytical and environmental chemistry, land treatment of hazardous and non-hazardous wastes, waste management
Brown, Paul W.
Extension Specialist

Agricultural meteorology, biometeorology, evapotranspiration, crop water use, heat units, agweather information
Brusseau, Mark L.
Associate Professor

Subsurface hydrology, environmental chemistry, contaminant transport/fate processes, modeling, soil/groundwater remediation
Chorover, Jon
Associate Professor

Sorption and transformation reactions in soil and water
Curry, Joan
Assistant Professor

Soil physical chemistry, surface chemistry, molecular modeling
Fitzsimmons, Kevin
Associate Research Scientist

Aquaculture, marine ecology, billfish biology, bioremediation
Frye, Robert J.
Associate Professor

Community ecology and population biology, modeling of ecological systems, conservation biology
Gerba, Charles P.
Professor

Environmental microbiology, gene probes, water reuse, biocolloid transport in the subsurface, virology, parasitology, risk assessment
Glenn, Edward P.
Professor

New crops, utilization of saline water, plants for bioremediation, environmental management
Hendricks, David M.
Associate Professor

Soil genesis, soil micromorphology, soil classification, clay mineralogy
Huete, Alfredo R.
Professor

Remote sensing, canopy modeling, terrestrial physics, global change
Maier, Raina M.
Associate Professor

Bioremediation, microbial ecology, modeling of microbial degradation of xenobiotics
Matthias, Allan D.
Associate Professor

Micrometerology, energy budget, trace gases
Pepper, Ian L.
Professor

Molecular ecology of soil organisms, reuse of wastes, molecular detection of pathogens
Post, Donald
Professor

Soil Science
Rensing, Christopher
Assistant Professor

Structure and function of metal transport proteins
Riley, James J.
Associate Professor

International agriculture, arid-land management, halophytes
Sanchez, Charles
Research Scientist

Soil fertility, vegetable/fruit crops, environmental impact of fertilizer use
Thompson, Thomas L.
Assistant Professor

Soil fertility, soil-plant relations, fate and transformations of nitrogen in the subsurface, nitrogen-15 tracers, fertilizer efficiency
Walworth, James
Associate Specialist

Waste management, plant nutrition, bioremediation
Warrick, Arthur W.
Professor

Soil physics, geostatistics, water resources, spatial variability,

mathematical modeling, unsaturated flow, contaminant transport

Wierenga, Peter J.
Professor

Unsaturated flow, contaminant transport, vadose zone characterization

JOINT/ADJUNCT FACULTY

 
Adamsen, Floyd
Adjunct Professor

Nitrogen and water management
Ferre, Paul "Ty"
Joint Adjunct Assistant Professor

vadose zone hydrology and geophysics
Martens, Dean
Associate Professor

Soil Biochemistry
Moran, Susan
Associate Professor

Remote sensing
Nelson, Stephen
Joint Senior Research Scientist

Marine ecology
Straub, Christopher
Adjunct Professor

Environmental Law
Yeh, Jim
Joint Adjunct Associate
Professor

Water flow and solute transport
Yoklic, Martin
Associate Research Scientist

Community planning, urban systems, environmental psychology
Williams, Bryan L.
Joint Adjunct Associate Professor

Environmental exposure assessment and policy

ADMISSION POLICIES

Application for Admission

Applications must be on forms furnished by the Graduate College. Application and transcripts should be on file at least 4-6 months prior to registration. An application processing fee of $45.00 is required with the application. A check or money order should be made payable to: Graduate College, University of Arizona. Domestic applications are due by June 1, for the Fall Semester, and August 1, for the Spring Semester; International applications are due February 1, for the Fall Semester, and August 1, for the Spring Semester.


Admission

Admission is open to all qualified applicants who hold a bachelors degree from the University of Arizona or from a college or university that grants degrees recognized by the University of Arizona.

To receive full consideration for financial support (i.e., RA, TA), it is recommended that the application be filed by February 15 and July 15, for the coming Fall and Spring Semesters, respectively. No decision on financial support will be made until a complete application has been submitted to both the department and the Graduate College.


Status

a) Regular Graduate Status—Students who meet all admission requirements may be admitted to Regular Graduate Status to undertake work leading to an advanced degree.

b) Admission with Deficiencies—An additional number of undergraduate courses may be required when previous work has not approximated the general requirements to pursue an advanced degree in the Department of Soil, Water and Environmental Science.

c) Provisional Admission—Provisional admission indicates some reservation on the part of the Graduate College or Department with regard to the applicant's qualifications to undertake graduate work leading to an advanced degree. Regular status can be achieved after completion of nine credits of graduate work with superior grades.

d) International Special Status—Students admitted to this status are full-time students, taking a minimum of nine hours of credit per semester. Those units may be in appropriate courses at either the undergraduate or graduate level. At the conclusion of the student's first semester in residence, the Graduate College and the Department will evaluate the student's progress and decide on the change to regular status.

e) Graduate Nondegree Status—Individuals holding a bachelor's degree, or its equivalent, may attend graduate-level courses without being admitted to a graduate degree program. Note that a maximum of 12 units of course work taken while in this status may be applied, with approval of the department, to the graduate degree.


Evaluation for Admission

The Graduate Coordinator, a faculty member appointed by the Department Head, will process all applications. The academic record of each applicant will be reviewed by an ad hoc committee of at least three faculty appointed by the Coordinator. Admission is competitive and normally no candidate with a grade point average below 3.00 over the last 60 units of course work will be considered. The GRE is required for all applicants. A TOEFL score of 550 or better is required of all international students. The Coordinator will ultimately give a recommendation to the Department Head on the applicant's suitability for graduate work. Any course deficiencies will be noted. Admission is also subject to the availability of space and facilities.

PREREQUISITES and DEFICIENCIES

For students intending to major in Environmental Science the minimum undergraduate preparation includes the following courses (or equivalent):

UA Course Numbers Course Description

Chemistry 103a, 104a Fundamentals of Chemistry—(Lec & Lab)

Chemistry 103b, 104b Fundamentals of Chemistry—(Lec &Llab)

Chemistry 241a Organic Chemistry—(Lec)

Chemistry 322, 323 Principles of Analysis—(Lec & Lab)

Physics 102, 181 Introductory Physics—(Lec & Lab)

MIC 205 R Biology of Microorganisms—(Lec)

Math 125, 129 Calculus I and II

Geoscience 251 Physical Geology—(Lec), or or, SWES 200 Soils—(Lec)

For students intending to major in Soil and Water Science the minimum undergraduate preparation includes the following courses (or equivalent):


UA Course Numbers Course Description

Chemistry 103a and 104a Fundamentals of Chemistry—(Lec and Lab)

Chemistry 241a Organic Chemistry Lecture—(Lec)

Chemistry 322, 323 Principles of Analysis—(Lec and Lab)

MIC 205 R Biology of Microorganisms—(Lec) or Biology 181R Introductory Biology—(Lec)

Physics 102, and 181 Introductory Physics—(Lec & Lab)

Math 125 and Math 129 Calculus I and II

Geoscience 251 Physical Geology

SWES 200 and 201 Soils—(Lec & Lab)


Students who lack some prerequisites, but who are otherwise qualified, may be admitted with the missing courses listed as deficiencies that must be made up early in the program. A deficiency is the lack of knowledge or course work in a basic area which is critical to the student's graduate and professional work. The student's advisory committee has the authority, after due consultation, and the approval of the Department Head, to add, delete, or otherwise see that necessary courses are obtained to achieve the student's professional goals.

It is advantageous to take immediate steps toward removing any deficiencies noted, within the first two semesters. Students should check with their advisory committee prior to the first registration, as to the exact nature of such deficiencies, and obtain the committee's recommendation for their elimination.

No course deficiency can be eliminated on the pass-fail grading system except by specific written approval from the Department Head, and prior recommendation by the student's advisory committee. Normally, a grade of "C" or better must be obtained to satisfy deficiency requirements.


GENERAL DEPARTMENT POLICIES AND PROCEDURES

Major Advisor—Advisory Research Committee

The advisory committee is responsible for guiding each student's academic program, including all examinations. The major advisor is someone within the student's general study area. With the help of the major advisor and concurrence of the committee members, two additional members from appropriate areas will be identified to complete the student's Advisory Committee.

The minimum number of committee members is three, but more may be added as necessary. The advisor/director, and one other member, must be faculty members in the Department of Soil, Water, and Environmental Science, with expertise in the immediate field of research. The student may also have a co-director or committee member outside the department, provided that he or she has acceptable credentials.


Course Loads

The usual minimum load for full-time graduate students is ten units of graduate credit. For graduate students on an assistantship or associateship, the required minimum is ten units of graduate credit.


Grades

The Graduate College has specific regulations on grades necessary for continuing in a degree program and other forms of scholarship requirements. Please read the current Graduate Catalog carefully. The Department follows these regulations. Should the grade point average fall below a 3.00, the student will be placed on probation. If at the end of the following semester the cumulative average is still less than 3.00, the Department will request the termination of graduate studies. According to departmental policy, a student on academic probation cannot hold a scholarship, fellowship, assistantship, or an associateship during the period of probation.


Length of Support and Time to Degree

The general policy of the department on financial aid is that a student pursuing a M.S. degree will receive two years of support at most, and those pursuing a Ph.D. degree will receive no more than three to four years of support. In specific situations, the length of support may be less, or greater than, those stated. The department encourages full-time students to complete their study programs in two years for M.S. degrees and three to four years for Ph.D. degrees.


PROGRAM REQUIREMENTS FOR A MASTER OF SCIENCE DEGREE

in Soil, Water and Environmental Science

General Requirements

The department program leading to the Master of Science degree requires a minimum of 30 units of graduate credit, including thesis units. Not less than 15 units must be in the major field, and at least 15 units must be from courses in which letter grades have been earned. All graduate students are required to attend weekly department seminars (SWES 696A); however, graduate credit is given for only one semester.

All Master's degree programs require that a minimum of 12 units of work be conducted at the University campus in Tucson. A total of 12 units of graduate credit earned as an undergraduate senior, in graduate non-degree status, and/or transferred from an accredited institution, can be applied for credit toward a master's degree. Up to 8 additional graduate credits earned in graduate non-degree status can be applied for credit toward a master's degree if they were taken at the University of Arizona as part of a post-baccalaureate graduate certificate program that is on file with the Curriculum Office and approved for application toward the master's degree by the department offering the master degree. Course work must have grades of A or B. Graduate students may, with the approval of their advisors and the department head, use up to six units of 400-level course work in the graduate degree program in areas outside of Soil, Water and Environmental Science. These courses can be applied toward fulfilling the total credit requirement, but do not receive graduate credit.


Core Course Requirements

The core course requirements for the M.S. degree with a major in Soil and Water Science are met by completing any four of the five following courses:

SWES 511 Soil Chemistry

SWES 525 Environmental Microbiology

SWES 531 Soil Morphology

SWES 570 Soil Physics

SWES 602 Soil-Plant Relationships



The core course requirements for the M.S. degree with a major in Environmental Science are:

SWES 525 Environmental Microbiology

SWES 564 Environmental Chemistry

SWES 520 Environmental Physics


For each major area, additional courses are required; these are selected from the approved optional-course lists. Areas of emphasis are available in Environmental Chemistry, Environmental Microbiology, Environmental Pollution Science, and General Environmental Science.


Plan of Study

In conjunction with his/her major professor or advisor, each student is responsible for developing a written Plan of Study. This Plan is to be filed with the Graduate College by the end of the second semester in residence. The Plan of Study should identify (1) courses the student intends to transfer from other institutions, (2) courses already completed at The University of Arizona which the student intends to apply toward a graduate degree, and (3) additional courses the student plans to complete to fulfill degree requirements. The Plan of Study must have the signature approval of the student's major professor and department head (or chair of the graduate committee) before it is submitted to the Graduate College. If necessary, the plan can be changed later on the Master's Completion of Degree Requirements form.


Research Report

Evidence of academic and research abilities are verified by presenting research results in a formal Master's thesis to the Department. By the end of the second semester in residence, a research topic should be chosen by the student in consultation with their committee. From two to eight units of thesis research (SW 910) can be earned for the preparation of either document, which are counted as part of the 30 minimum units required for the Master's degree.


Non-Thesis option for M.S. students

Students may meet requirements for the M.S. degree by submitting a report in lieu of a thesis. This must be approved by the student's graduate committee, the major advisor, and the department head. Students must also present a seminar or other oral presentation to the committee, in lieu of the thesis defense. Additional requirements include 30 units of course work, including 15 units in the Major, one semester of seminar, and any additional requirements specified by the committee.


Master's Completion of Degree Requirements and Final Examination

The Master's final exam in the Department of Soil, Water, and Environmental Science involves a defense of the thesis, and submission of the Master's Completion of Degree Requirements form to the Graduate College. Master's examination committees consist of at least three members. At least two members must be tenure-track faculty at the rank of Assistant Professor or higher, and at least two must hold faculty appointments in the Department of Soil, Water, and Environmental Science. If the candidate fails the final exam, a second exam may be granted no sooner than four months from the date of the first exam.


Time Limitation

Graduate course credit to be applied with full value toward a Master's degree shall have been earned not more than six years prior to the completion of all requirements for the degree.


PROGRAM REQUIREMENTS FOR A PH.D. DEGREE

in Soil, Water and Environmental Science

General

The equivalent of at least six semesters of full-time study are required. At least two full-time semesters (i.e., at least 10 units each semester), and at least 30 credits of graduate work must be completed at the University of Arizona. For students holding graduate assistantships, the residence requirement can be met by four semesters, during each of which they register for six or more units of graduate credit. A master's degree from another institution, and additional graduate credit for which grades of A or B were obtained, may be transferable with the approval of the Department of Soil, Water, and Environmental Science, and the Graduate College. Degree requirements must be met within 10 years of the earliest course work appearing on your program of study.

At least 36 units of course work, exclusive of dissertation units, must be in the major subject area. A minor course of study is also required; this usually constitutes at least nine units. A minimum of 18 units of dissertation research (SW 920) must be completed during the conduct of the dissertation. Thus, a minimum of 63 total units is required for the Ph.D. At least one half of these units must be from courses in which letter grades have been earned. Up to six units may consist of 400-level courses taken outside of the department.


Academic Advisory Committee


Upon admittance, each student will be assigned a major advisor. A full academic committee for the major and for the minor, should be chosen by the end of the first year. This committee will help plan the student's academic work, and they will supervise all examinations up to the dissertation and final examination work.


Qualifying Examination

A qualifying exam is required of all students entering a Ph.D. program. The purpose of the exam is to demonstrate capability to undertake work leading to candidacy for the doctorate. All students will take the qualifying exam during the first semester of the Ph.D. program except for students listed as International Specials. International Specials may take the exam at any time during their first two semesters. The qualifying exam consists of a written exam stressing basic concepts in mathematics, chemistry, physics, biology, and geology. The primary purpose of the exam will be to determine the suitability of the candidate for the Ph.D. program, to evaluate the student's strengths and weaknesses, and to aid in selecting a course program.


PH.D. GRADUATE STUDY PROGRAM

Plan of Study

By the end of the first semester, students should develop a list of courses for their Ph.D. graduate program, in conjunction with, and final approval by, the student's major professor and graduate committee. Suitable courses from other departments can be included in the major program. Requirements for the minor are determined by the appropriate department, but usually consist of a minimum of 9 to 15 units.

The student is then responsible for completing the official Plan of Study. After approval by the Major Department Head/Major Advisor and Minor Department Head/Minor Advisor, the Plan of Study form is to be filed with the Graduate College by the end of the third semester in residence. The Plan of Study should identify (1) courses the student intends to transfer from other institutions, (2) courses already completed at The University of Arizona which the student intends to apply toward a graduate degree, and (3) additional courses the student plans to complete to fulfill degree requirements. The Plan of Study must have the signature approval of the student's major professor and department head (or chair of the graduate committee) before it is submitted to the Graduate College.


Minimum Course Requirements

The minimum course requirements for the Ph.D. with majors in Soil and Water Science or Environmental Science are as follows:

– M.S. core requirements

– Additional course work in Major

– Two seminars (SWES 696a); OR: one semester of SWES 696a, plus one semester as a teaching assistant or proctor; OR: one semester of SWES 696a plus one semester of seminar from another department.

– 18 units of dissertation (SWES 920), with a maximum of 9 units during any regular semester

– Minimum 9 units of course work in the Minor (See Minor Department for requirements)

Students are allowed to use six units of 400-level course work in the minor area. The 400-level courses in the minor program are accepted toward fulfilling the requirements for total number of units in the student's program of study. However, 400-level courses DO NOT receive graduate credit, and are not calculated in the cumulative GPA.

Minors

Intradepartment

In recognition of the diversity of the SWES Department, students whose major department is SWES can also obtain their minor within the SWES Department if they so desire. In this case, the faculty acting as the major committee must be distinguished from those acting as the minor committee. Twelve credits are required for the minor. The courses used to complete the minor will be selected in consultation with the minor committee, who have final approval.



Interdepartment

Students may also obtain a minor from another department. In this case, the requirements of that department must be followed. The courses used to complete the minor will be selected in consultation with the minor committee, who have final approval.


Foreign Language Requirement

The Department of Soil, Water and Environmental Science recommends, but does not require proficiency in a foreign language.


Oral Comprehensive Examination

Before admission to candidacy for the degree, the student must pass a general examination in the chosen fields of study. The Oral Comprehensive Examination is intended to test the student's general fundamental knowledge of the fields of the major and minor subjects of study. It shall include written portions covering the major and minor fields and, not later than six months after successful completion of the first of these portions, an oral portion, which shall be conducted before a committee of the faculty appointed by the Dean of the Graduate College upon consultation with the major and minor department.

The Graduate Council has indicated that the student should be examined for competence in two ways:

(a) in breadth across the general field of study, and (b) in depth within the area of specialization. As a standard of successful performance, the examining committee should question whether the student has demonstrated the professional level of knowledge expected of a junior academic colleague. As in the past, the examination must contain both written and oral components.

The Oral Comprehensive Examination is not intended as the vehicle for defense of the dissertation prospectus. Although discussion of the dissertation project may be appropriate, the Council instructs specifically that the examination should foremost be comprehensive and integrative in relation to the knowledge of the field and specialization and should exclude other than brief consideration of the dissertation project. Defense of the dissertation prospectus should be conducted in other formal meetings deemed appropriate by individual departments. It is not uncommon on the campus for a student's Comprehensive Examination committee to have a different membership than his/her dissertation committee (prospectus and final defense, or both). Written guidelines for conducting the exam are available from the office.

The timing of the Oral Comprehensive Examination should come late enough in the student's program of study that essentially all course work, excepting dissertation credit, is completed. The phrase "essentially all" is intended to mean that the student should have completed as much course work as possible to enable a reasonable examination of breadth in field and depth in specialization to be conducted. It is expected that departments will meet the "spirit" of this requirement in different ways, depending on the cultures of individual academic units. At least three weeks prior to the proposed date of the comprehensive examination, the Application for Comprehensive Examination must be filed with the Graduate College.

No student will be permitted a second attempt to pass the Oral Comprehensive Examination except upon recommendation of the examining committee, endorsed by the major department and approved by the Graduate Council. The second examination, if approved, may not take place until four months from the date of the first examination. The only visitors permitted at the comprehensive examination are regular University faculty members.


Advancement to Candidacy

The Advancement to Candidacy must be filed with the Graduate College no later than six months before the student schedules the Oral Defense Examination (formerly Final Oral Exam). Information on this form will notify the Graduate College of the student's intended semester of graduation , title of dissertation, and diploma mailing address. An approved Advancement to Candidacy must be on file with the Graduate College before scheduling the Oral Defense Examination.


Announcement of Oral Defense Examination

When the required standards of scholarship have been met and research ability has been demonstrated, the candidate shall submit to the Oral Defense Examination in defense of the dissertation, as well as any general questioning which may develop therefrom, related to the field of study. At least three weeks prior to the proposed date of the examination, the Announcement of Oral Defense Examination must be filed with the Graduate College, and announced publicly at least one week in advance. The examination shall be open to the public. The committee shall be appointed by the Dean of the Graduate College in consultation with the major and minor departments. All three committee members of the major field must be present for the examination; the minor representatives may waive their attendance if they so desire. The Graduate Council requires that committee signatures on the Announcement indicate that the dissertation is in near-final form, except for minor modifications. The committee must specify a date for completion of any dissertation revisions, not to exceed one year from the date of the examination.


Time Limitations

Degree requirements must be met within ten years of the earliest course work appearing on the student's program of study, including any transfer credit.


REGULAR COURSES

SWES 501. Management of Arid Lands and Salt-Affected Soils (3) Principles and practices of soil, water and crop management under arid and semiarid conditions, the use of diagnostic procedures for evaluating soils and waters, reclamation, and economics of irrigation project development. Field trips. Silvertooth.

SWES 504. Irrigation Principles and Management (3) (Identical with ABE 504) Principles of operating farm irrigation systems, evaluation of systems, selection of systems, basic irrigation scheduling, measurements of water flow, soil moisture, pump and system efficiencies.

SWES 505. Environmental and Soil Analysis (3) Principles and methods of chemical analysis of soils, water and biological materials emphasizing properties of agricultural and environmental significance. P, CHEM 322, 323; PHYS 102b, 180b. Artiola.

SWES 511. Soil Chemistry (3) Soil chemical interactions with water, air, plants and pollutants. P, SW 200, CHEM 103b, 104b. Hendricks.

SWES 517. Introduction to Geographic Information Systems (3) (Identical with RNR 517) Computer techniques for capture, processing, analysis and display of geographic information, with emphasis on applications in land resources management and planning. P, basic knowledge of computer operations.

SWES 520. Environmental Physics (3) Physical principals used in assessment, prevention or reduction of environmental problems. Main themes include energy sources; energy and mass transport; and pollution within soil, water and air. P, MATH 125b, PHYS 103. Matthias/Riley.

SWES 525. Environmental Microbiology (3) (Identical with MBIM 525) Current concepts in water quality, aerobiology and microbial biogeochemistry. P, SW 325, CR, CHEM 241b. Maier.

SWES 526. Environmental Microbiology Laboratory (2) (Identical with MBIM 526) Basic techniques for isolation and characterization of environmental soil and water microflora including methods for enumeration and measurement of physiological activity. P, SW 425. Pepper/Gerba.

SWES 531. Soil Morphology, Classification and Interpretations (3) Theory and practice of describing characteristics of soils; principles of soil classification and the classification systems; making soil interpretations for selected land uses. Field trips. P, SW 200, 201.

SWES 540. Biodegradation of Pollutants in Soil and Groundwater (3) (Identical with MBIM 540) Description of modern pollution problems and potential biological remediation techniques focusing on the chemistry, biochemistry and molecular biology of biodegradation of hazardous and toxic compounds. P, SW 425. Maier.

SWES 541. Soil Genesis (3) (Identical with GEOS 541) Physical and chemical processes and mineralogy of weathering and soil formation; quantitative pedology; the soil as part of the ecosystem. Field trips. P, GEOS 251 and CHEM 103b. Hendricks.

SWES 543. Radar Imaging of the Environment. (3) Active RADAR theory, imaging system parameters, and analysis techniques to exploit remotely sensed RADAR imagery for environmental monitoring. Emphasis will be on interpreting RADAR imagery, extracting quantitative information, and conducting operational research. Moran

SWES 544. Applied Environmental Law. (3) A guided journey through real world environmental law; U.S. legal system, major environmental laws—criminal and civil; common marketplace problems and solutions; high profile cases; essential professional skills.

SWES 546. Environmental Biotechnology. (2) (Identical with MBIM 546) Molecular methods for detection of microorganisms in the environment. Fate and survival of introduced organisms in the environment. Molecular mechanisms of microbial inactivation in waste treatment systems and microbial risk assessment. P, SW 525. Pepper/Gerba.

SWES 547. Biometry and Quantitative Analysis. (1–3) Statistical methods for laboratory and field sciences. Students will work with their own data sets or material closely related to their own interests. P, consent of instructor. Frye.

SWES 550. Anticipating the Future: Focus on Environment. (3) Techniques to understand broad issues about the future with focus on environmental topics. Use of computer conferencing and significant student discussion with opportunities for team approaches and reporting. Caldwell.

SWES 553. Remote Sensing of the Environment. (3) Remote sensing techniques and applications for improved natural resource utilization of soils, water, grasslands, and forest. Fundamental energy-matter interactions that influence the spectral characteristics of vegetation, soil, and water. Field trips. P, SW 330 or PHYS 102b. Huete.

SWES 561. Soil and Water Conservation. (3) Consideration of major world soil and water conservation problems and solutions; principles of soil erosion by wind and water and their effects on world food production and environmental problems related to land degradation by erosion.. Field trips. P, SW 200. Riley.

SWES 564. Environmental Chemistry. (3) Physical and chemical processes influencing the behavior of contaminants in the subsurface environment. Includes equilibrium and kinetic theory of solubilization-dissolution, volatilization, sorption, hydrolysis, photolysis, surface catalysis, and radioactive decay. P, CHEM 480a, PHYS 110. Curry.

SWES 565. Contaminant Transport in Porous Media. (3) The transport of contaminants in the subsurface environment. Effects of dispersion, interphase mass transfer, transformation reactions, and porous-media heterogeneity on transport; covers aqueous (dissolved) and multiphase (immiscible liquid, gas) systems. P, SW 570 or HWR 518 or 531. Brusseau.

SWES 566. Soil and Groundwater Remediation. (3) Methods for remediating contaminated soil and groundwater; factors influencing efficacy of remediation systems. Brusseau.

SWES 570. Soil Physics. (3) Soil structure and physical constitution of soils; the physical properties of soil-water systems, and transport of gases, energy and solutes in soil, and physical laws governing the movement and availability of soil water. P, SW 200, PHYS 102b, CR, MATH 125a. Warrick.

SWES 573. Monitoring Biosphere Processes. (2) Global-scale interactions of soils with their plant cover and climate. The spatial distributions and dynamics of soil-plant-water processes with emphasis on measurements from space. P, SW 200; 330 or 453. Huete.

SWES 574. Aquatic Plants and the Environment. (4) The role of riparian areas, estuaries, and constructed wetlands in the environment. Emphasis on plants as wildlife habitat, for nutrient cycling and bioremediation. Fitzsimmons / Glenn.

SWES 590. Remote Sensing for the Study of the Planet Earth. (3) (Identical with REM 590) A multidisciplinary course delineating the physical basis of electromagnetic remote sensing, the concepts of information extraction, and applications, pertinent to earth systems science.

SWES 597 Quantitative Data Analysis (3) Basic statistical concepts, experimental design, efficient collection, archiving and presentation of data. Frye

SWES 602. Soil-Plant Relationships. (3) Principles of soil solution and colloid chemistry, soil-water relationships, soil microbiology, and plant physiology and metabolism will be discussed. These principles will be applied to processes of soil nutrient cycling, nutrient availability, and plant growth. P, SW 200. Thompson.

SWES 605. Soil-Water Dynamics. (3) (Identical with HWR 605 and ABE 605) Water flow in soils; closely related problems of solute, pollutant, and heat transfer; emphasis on current concepts and research, and on mathematical descriptions. P, MATH 254. Warrick.

SWES 665. Advanced Contaminant Transport. (3) The transport and fate of contaminants in subsurface systems. The course is based on critical, detailed analyses of case studies of actual contaminant transport problems. This provides a "real-world" basis, and allows an opportunity to develop skills necessary to evaluate real systems. P, SWES 565 or equivalent. Brusseau.

SWES 694. Practicum. (3) Advanced Soil Chemistry. P, SW 411, CHEM 480a.

SWES 696. Seminar. (1) Topics in Soil, Water and Environmental Science. Riley.


INDIVIDUAL STUDIES

SWES 599, 699, 799. Independent Study. (Credit varies) Qualified students working on an individual basis with professors who have agreed to supervise such work. Grades available: S/P,C,D,E,I,W. (Graduate students doing independent work which cannot be classified as actual research will register for credit under course number 599, 699, or 799).

SWES 900. Research. (Credit varies) Individual research, not related to thesis or dissertation preparation, by graduate students. Grades available: S/P,C,D,E,K,W.

SWES 910. Thesis. (Credit varies) Research for the master's thesis (whether library research, laboratory or field observation or research, artistic creation, or thesis writing). Maximum total credit permitted varies with the major department. Grades available: S/P,E,K,W.

SWES 920. Dissertation. (1 to 9) Research for the doctoral dissertation (whether library research, laboratory or field observation or research, artistic creation, or dissertation writing). Grades available: S/P,E,K,W.

SWES 930. Supplementary Registration. (1 to 9) For students who have completed all course requirements for their advanced degree programs. May be used concurrently with other enrollments to bring to total number of units to the required minimum. Grade available: K.


Last update-September 2001