Irrigation

This program has long been recognized as one of the best programs in the region. Many of our successful graduates are occupying professional positions in the irrigation industry both locally and in the region. As a graduate student in Irrigation, you will be exposed to state-of-the art classroom instruction, laboratory and field work and research in advanced irrigation technologies and real-world projects, professional irrigation design practices and more. Principles of water management from a conservation perspective will be stressed.

Program Learning Outcomes:

1- Apply Research to Practice: demonstrate ability to use relevant concepts and methods to assess storage, distribution, and movement of ground water in addition to soil-water-plant-atmosphere relationships and field measurements techniques to analyze water resource problems and accordingly design irrigation systems, and advise on their operation.

2- Advanced Core Knowledge in the Discipline: successfully complete courses in hydrology, and remote sensing. Demonstrate efficiency in resolving case studies in the aforementioned areas and planning field and laboratory research. 

3- Scholarly Communication Skills: able to efficiently present research subjects relating to integrated water resources management, irrigation engineering and the state of research in these areas, as well as their relevance to own thesis or research topic.

4- Professionalism and Ethical Conduct: apply ethical considerations in the application of integrated water resources management, and show proof of WEFRAH​ centered rational, as pertaining to sustainability of resources and livelihoods.


 AGSC 301             Statistical Methods in Agriculture                                                     2.3; 3 cr.

An investigation of the statistical techniques needed to design experiments and analyze and interpret agricultural research data. Prerequisites: STAT 210 or EDUC 227 and CMPS 209.  Fall and spring.

AGSC 310             Advanced Soil Physics                                                                        3.0; 3 cr.

Physical properties of soils in arid, semi-arid, and sub-humid regions; soil-water-plant-atmosphere relationships, plant water extraction, and evapotranspiration; salt and water flow in soils, soil heat flow, and modeling soil water extraction and evaporation.

AGSC 317              Surface and Groundwater Hydrology                                                3.0; 3 cr.

Relevant statistical concepts and extreme event distributions, rainfall frequency analysis, rainfall-runoff relationships, unit hydrograph theory, overland flow routing, and stochastic processes in hydrology. Occurrence, storage, distribution, and movement of ground water; confined and unconfined aquifer properties, well-aquifer hydraulics and relationships and ground water basin management.

AGSC 326             Surface Irrigation Engineering                                                            3.0; 3 cr.

Principles of design, operation, and evaluation of surface irrigation systems; irrigation field design and field measurement techniques. Prerequisite: consent of instructor.

AGSC 328             Sprinkler and Micro-Irrigation Engineering                                        3.0; 3 cr.

Fundamentals of design, operation, evaluation, and selection of pressurized irrigation systems; pipeline economics, pump hydraulics, and pumping plant design considerations.

AGSC 330 Integrated Water Resources Management                                                     3.0; 3 cr.

Quantitative methods for analyzing water resource problems. Topics covered include the design and management of facilities for river basin development, flood control, water supply, hydropower, and other activities related to water resources. Stochastic and deterministic methods for approaching and analyzing water resources problems,. Reservoir sizing, simulation, hydrologic time series analysis and optimization methods. 

AGSC 334              Remote Sensing of the Environment                                                  2.3; 3 cr.

Quantitative methods for analyzing remote sensing datasets from the agricultural and natural resources perspective. The principles of electromagnetic radiation, as well as the interactions of solar radiation with the earth's atmosphere will be explored. The spectral reflectance, transmittance and absorption characteristics of the three main Earth cover types– vegetation, soil and water– will be stressed. Spatial, spectral, and temporal characteristics of the major low-, medium- and high-resolution multispectral sensor systems and their data products will be studied and compared.​

AGSC 395             Graduate Seminar in Agricultural Science                                          1.0; 1 cr.

AGSC 396/396A   Comprehensive Exam                                                                                   0 cr.

GSC 399             MS Thesis​


Contact Us

For various questions, please try contacting us via social media first!
read more

Privacy Statement

We take data privacy seriously and adhere to all applicable data privacy laws and regulations.
read more

Copyright and Disclaimer

Written permission is needed to copy or disseminate all or part of the materials on the AUB website.
read more

Title IX, Non-Discrimination, and Anti-Discriminatory Harassment

AUB is committed to providing a safe, respectful, and inclusive environment to all members of its community.
read more