Agricultural engineers work on various tasks related to agricultural production and processing. Their job description typically includes designing agricultural machinery, equipment, and structures; developing systems for irrigation, drainage, and water resource management; conducting research to improve crop yields and quality; overseeing environmental and sustainability practices in agriculture; and providing technical support to farmers and agricultural businesses. They often collaborate with farmers, scientists, and other professionals to ensure efficient and sustainable agricultural practices.
This income data is sourced from the May 2023 Occupational Employment and Wage Statistics (OEWS) survey. The dataset is updated annually.
Annual Pay Distribution | Salary |
|---|---|
10th percentile | $83,680.00 |
25th percentile | $83,680.00 |
median (50th percentile) | $83,680.00 |
75th percentile | $83,680.00 |
90th percentile | $83,680.00 |
Hourly Pay Distribution | Hourly Rate |
|---|---|
10th percentile | $40.23 |
25th percentile | $40.23 |
median (50th percentile) | $40.23 |
75th percentile | $40.23 |
90th percentile | $40.23 |
To become an Agricultural Engineer, individuals typically need a bachelor's degree in agricultural engineering or a related field such as biological engineering, mechanical engineering, or civil engineering. Coursework often includes subjects like agricultural systems management, water resource management, soil mechanics, and sustainable agriculture practices. High school education is a prerequisite for pursuing a bachelor's degree, so a high school diploma or equivalent is required to enter college and subsequently earn the necessary degree to work as an Agricultural Engineer. Training for Agricultural Engineers typically involves a combination of classroom instruction and hands-on experience through internships or cooperative programs with relevant industry partners. This training allows aspiring professionals to gain practical skills in areas such as farm equipment design, irrigation systems, crop processing technologies, and environmental impact assessments within agricultural settings. Additionally, continuing education and professional development courses are often pursued to stay updated with the latest advancements in agricultural engineering practices and technologies.