Agricultural engineers combine knowledge of engineering with biological science to improve sustainable agricultural production. They design irrigation, drainage, and flood- and water-control systems, livestock housing structures, greenhouses, silos, food storage facilities, food processing plants, and equipment for ground preparation, seeding, spraying, harvesting, and transporting agricultural goods.

\n

The agricultural engineering curriculum prepares students for this role with courses in computer-aided modeling and engineering, fluid power, measurements and instrumentation, agricultural robotics, natural resource conservation, and engineering properties of biological materials.

", "display_order": 1, "created_at": "2019-08-29T17:56:37.865582-07:00", "updated_at": "2021-11-18T13:55:38.558859-08:00"}, {"degree_id": 230, "page": 1, "title": "Program Options", "summary_markdown": "**Notes** \r\n\r\n- It is important to select a program that is accredited by the Accreditation Board for Engineering and Technology (ABET). \r\n- At some schools, degrees in agricultural engineering may be offered as degrees in biological and agricultural engineering. \r\n\r\n**Bachelor\u2019s Degree in Agricultural Engineering \u2013 Four Year Duration** \r\nCommon areas of emphasis in agricultural engineering bachelor\u2019s programs include mechanical design, structures, electronic and control systems, irrigation, agricultural safety, renewable energy and waste treatment, and resource information systems. \r\n\r\nAt this level, students also take support courses in bioengineering fundamentals, microbiology, mechanics of materials, general chemistry, computer programming, electronics, economics, calculus, physics, and statistics. \u2018Learn by doing\u2019 labs and field trips are integral components of the curriculum. \r\n\r\nHere is a snapshot of the major\u2019s core courses: \r\n\r\n- Careers in Agricultural Engineering \u2013 introduction to careers associated with agricultural engineering and agricultural systems management; professional engineering registration process; engineering problem solution and report format; design procedures; engineering fundamentals \r\n- Laboratory Skills and Safety \u2013 introduction to fabrication and construction materials in the field of agricultural engineering; fabrication skills in the development of wood, metal, and concrete projects, and creative design; strength tests of wood, fasteners, concrete, and student design projects \r\n- Design Graphics and CAD for Agricultural Engineering \u2013 visual communication in engineering design and problem solving; principles of freehand sketching and computer-aided drafting (CAD); using CAD software; 2D projections; land grading design using 3D drawing software \r\n- 3D Solids Modeling \u2013 introduction to 3-dimensional modeling using state-of-the-art software; model generation and modification \r\n- Fundamental of Electricity \u2013 application of electricity in biological and agricultural engineering; topics include basic electric circuits, wiring materials, code regulation, electrical measurements, system planning, motors, basic electronics, and an introduction to computer usage \r\n- Agricultural Structures Planning \u2013 planning of facilities in production systems; materials and processes used in construction of agricultural structures; environmental factors affecting crop storage structures and animal housing; design of structural environments to meet the needs of commodities, animals, and plants \r\n- Introduction to Mechanical Systems in Agriculture \u2013 introduction to elements used in the mechanical transmission of power and force in agricultural systems \r\n- Principles of Irrigation \u2013 land grading design, operation, management, and evaluation of irrigation methods \r\n- Engineering Surveying \u2013 field measurement using levels, robotic stations, real-time kinematic (RTK) GPS receivers, and data collectors; topographic surveys, topographic mapping, building layout, road design; geodetic survey, aerial mapping, geographic information systems (GIS), and remote sensing \r\n- Hydraulics \u2013 static and dynamic characteristics of liquids, flow in open and closed channels, uniform and non-uniform flow, flow measurement, and pumps", "content_markdown": "- Principles of Bioresource Engineering \u2013 theory and applications of bioprocess technology in biological and agricultural systems; engineering properties of biological materials and organisms; basic unit operations, fluid mechanics, and heat/mass transfer as applied to bioprocess technology \r\n- Measurements and Computer Interfacing \u2013 transducers and engineering measurements in agricultural engineering; topics include transducer characteristics, signal processors and controllers, instrumentation techniques, and the use of the computer in the measurement and control of typical engineering problems \r\n- Irrigation Theory \u2013 plant-water-soil relations examining evapotranspiration (the sum of evaporation from the land surface plus transpiration from plants), plant stress, soil moisture and depletion, irrigation frequency and depth, salinity management, infiltration, drainage, and climate control \r\n- Environmental Controls for Agricultural Structures \u2013 design of internal environments to meet the needs of commodities, animals, and plants; thermodynamic and psychrometric (concerned with the physical and thermodynamic properties of gas-vapor mixtures) principles for agricultural structures; heat transfer, insulation, and refrigeration; sensing, monitoring, and controlling environmental factors affecting crop storage structures and animal housing \r\n- Agricultural Systems Engineering \u2013 engineering and economic principles combined with mathematical optimization techniques to evaluate parameters in agricultural production and processing systems; project planning techniques, linear and nonlinear modeling, response surface methodology; professional responsibilities in agricultural engineering including ethics, patents, copyrights, and liability \r\n- Irrigation Engineering \u2013 design of on-farm irrigation systems; micro, surface, and sprinkler irrigation systems; canals and pumps; economics and strategies of pipe design and pipeline protection \r\n- Equipment Engineering \u2013 design, fabrication, and construction of specialized agricultural components and equipment \r\n- Agricultural Robotics and Automation \u2013 agricultural applications of signal processing, control theories, machine vision, and robot basics for agricultural production and processing; agricultural automation and the use of robotics in field applications; engineering approach to problem solving and experimental data analysis \r\n- Agricultural Structures Design \u2013 structural analysis and design of agricultural service and processing buildings; use of wood, metals, and reinforced concrete in light construction \r\n- Energy for a Sustainable Society \u2013 how the transition can be made from fossil fuels to renewable energy sources including hydro, biomass, solar, and wind; energy conservation \r\n- Water Wells and Pumps \u2013 water well drilling, design, and development; pump characteristics and design of pump intakes; pump testing \r\n- Senior Project Organization \u2013 selection and organization of a senior team project; involves time management, research techniques, budgeting, project presentation, and documentation of the team experience \r\n- Senior Project Operation, Testing, and Safety \u2013 preparation of an operation, maintenance, and safety manual for projects fabricated in earlier courses; development of a memorandum and video documenting the design, fabrication, and testing phases; final oral group presentation\r\n\r\n**Master\u2019s Degree in Agricultural Engineering \u2013 Two Year Duration** \r\nAt the master\u2019s level, students select thesis research projects and supporting coursework from a range of interest areas. \r\n\r\n**Sample Areas of Research** \r\n\r\n- Renewable biofuels \r\n- Bio-nanomaterials (molecular materials composed partially or completely of biological molecules, such as antibodies, proteins/enzymes, DNA, viruses, and cells) \r\n- Bioproducts development \r\n- Synthetic biological engineering \r\n- Biological and food process engineering \r\n- Biosensors and instrumentation \r\n- Food safety engineering \r\n- Natural resources engineering for sustainability of water and land use \r\n- Biowaste management and utilization \r\n- Ecological systems \r\n- Machine systems for biomass / bioenergy production and feedstock logistics \r\n- Plant, animal, and microbial production systems \r\n- Agricultural safety and health \r\n- Particulate materials processing and modeling \r\n- Structures and controlled environments of agricultural and biological facilities \r\n- Modeling of biological systems \r\n\r\n**Doctoral Degree in Agricultural Engineering \u2013 Four to Five Year Duration** \r\nThe Doctoral Degree in Agricultural Engineering is aimed at students interested in intense independent study and research. The program consists of a written and oral comprehensive preliminary examination, advanced coursework, extended and in-depth research, a written dissertation, and a final oral defense of the research. \r\n\r\nThese are common areas of specialization and possible topics of study within each area: \r\n\r\n**Bioprocess Engineering** \r\n\r\n- Carbon capture, sequestration, and utilization \r\n- Conversion of biomass into biofuels and bioproducts \r\n- Pharmaceuticals / nutraceuticals \r\n- Fermentation and product separation technologies \r\n- Processing, handling, and storage of biological products \r\n- Industrial enzymatic reactions \r\n- Sensor and computer technologies for the development of process control systems \r\n\r\n**Controlled Environments for Agriculture** \r\n\r\n- Aquaculture engineering \r\n- Agricultural air quality \r\n- Post harvest processes \r\n\r\n**Data Analytics and Integrated Modeling** \r\n\r\n- Identifying risks to food, water, and energy systems \r\n- Nexus of food, water, and energy systems \r\n- Technical-economic assessment \r\n- Life cycle assessment \r\n- Systems and processes optimization \r\n\r\n**Ecological Engineering** \r\n\r\n- Stream and river restoration \r\n- Habitat reconstruction \r\n- Bioengineering \r\n- Ecology conservation, wetland protection, and restoration \r\n- Green infrastructure \r\n\r\n**Environmental Engineering** \r\n\r\n- Water and air pollution control \r\n- Environmental restoration and protection \r\n- Irrigation and drainage \r\n- Liquid and solid waste management \r\n- Low impact development \r\n- Stormwater management \r\n- Water resource engineering \r\n- Bioremediation \r\n- Water and wastewater treatment \r\n- Public health and water quality \r\n- Land management \r\n- Environmental policy and law \r\n- Environmental fluid mechanics \r\n- Fluvial hydraulics and sediment transport \r\n\r\n**Precision Agriculture and Machine Systems** \r\n\r\n- Decision support systems \r\n- GPS and remote sensing systems \r\n- Precision agriculture and smart machinery \r\n- Machine systems and robotics \r\n\r\n**Sustainable Waste Management** \r\n\r\n- Animal waste management systems \r\n- Wastewater and solids waste treatment \r\n- Animal nutrient management \r\n- Waste utilization \r\n- Livestock air quality and odors \r\n- Land application systems \r\n- Animal emergency management", "content_html": "\n

Master\u2019s Degree in Agricultural Engineering \u2013 Two Year Duration
\nAt the master\u2019s level, students select thesis research projects and supporting coursework from a range of interest areas.

\n

Sample Areas of Research

\n\n

Doctoral Degree in Agricultural Engineering \u2013 Four to Five Year Duration
\nThe Doctoral Degree in Agricultural Engineering is aimed at students interested in intense independent study and research. The program consists of a written and oral comprehensive preliminary examination, advanced coursework, extended and in-depth research, a written dissertation, and a final oral defense of the research.

\n

These are common areas of specialization and possible topics of study within each area:

\n

Bioprocess Engineering

\n\n

Controlled Environments for Agriculture

\n\n

Data Analytics and Integrated Modeling

\n\n

Ecological Engineering

\n\n

Environmental Engineering

\n\n

Precision Agriculture and Machine Systems

\n\n

Sustainable Waste Management

\n", "display_order": 2, "created_at": "2019-08-29T17:56:37.869055-07:00", "updated_at": "2021-12-08T13:45:40.861973-08:00"}, {"degree_id": 230, "page": 1, "title": "Degrees Similar to Agricultural Engineering", "summary_markdown": "**[Agriculture](/degrees/agriculture-degree/)** \r\nDegree programs in this discipline teach students about one or more aspects of general agriculture. Coursework may cover topics like farm management, crop science, animal husbandry, agriculture technology, soil science, and food distribution. \r\n\r\n**[Biochemistry](/degrees/biochemistry-degree/)** \r\nThe focus of biochemistry is the chemical processes and reactions that occur in living matter. Biochemists apply principles of both biology and chemistry to issues in many different sectors, including the environment, medicine and health, industry and manufacturing, agriculture, biofuels, and marine science. \r\n\r\n**[Biotechnology](/degrees/biotechnology-degree/)** \r\nMajors in this field study engineering and the life sciences to create new products \u2013 such as vaccines, medicines, growth hormones for plants, and food additives \u2013 for the agricultural, industrial, and environmental industries. Among typical classes are biochemistry, general biology, cell biology, chemistry, and genetics. \r\n\r\n**[Civil Engineering](/degrees/civil-engineering-degree/)** \r\nThis degree field is focused on the processes of design and planning of civil infrastructure like roads, tunnels, bridges, dams, railroads, and airports. In their work, civil engineers are concerned with such things as how much weight a structure can support and the environmental issues presented by construction. The emphasis of civil engineering degree programs is math, statistics, engineering systems and mechanics, building codes, and statistical analysis. \r\n\r\n**[Environmental Engineering](/degrees/environmental-engineering-degree/)** \r\nStudents of environmental engineering learn how to apply principles of engineering, soil science, and chemistry to environmental protection and restoration. They examine issues like climate change, pollution, deforestation, the supply of energy resources, and population growth. \r\n\r\n**[Food Science](/degrees/food-science-degree/)** \r\nThe subject matter of food science degree programs spans the areas of biology, biochemistry, and chemical engineering. Students learn how to apply these foundations to examine food properties and develop foods that are sustainable.", "content_markdown": "**[Forestry](/degrees/forestry-degree/)** \r\nForestry degree programs teach students how to conserve and manage forests through sustainable practices. This means the curriculum covers both preserving biodiversity, as well as producing wood products in ecologically responsible ways. Classes also address contemporary issues like climate change, carbon management, and how to plan and manage urban forests or green spaces in metropolitan areas. \r\n\r\n**[Hydrology](/degrees/hydrology-degree/)** \r\nHydrology is about the active nature of water, the movement of precipitation. Hydrologists study surface waters like rivers, lakes, and streams and examine how rainfall and snowfall cause erosion, generate caves, and permeate soil and rock to become groundwater or flow to oceans and seas. Students of hydrology study these and other aspects of the field. They learn about water management methods, land use, environmental issues, and how to collect water data, interpret statistics, conduct computer modeling, and use geographic information systems (GIS) and the global positioning system (GPS). \r\n\r\n**[Manufacturing Engineering](/degrees/manufacturing-engineering-degree/)** \r\nDegree programs in manufacturing engineering teach the skills required to design, implement, monitor, and improve manufacturing processes to increase productivity. \r\n\r\n**[Natural Resource Management](/degrees/natural-resource-management-degree/)** \r\nNatural resource management is about finding ways to sustain the Earth\u2019s resources in the face of the growing human population. Majors in this discipline are typically passionate about clean water, clean energy, and clean environments. They study in the classroom, in the computer lab, and in the field and learn how to apply scientific and ecological knowledge, as well as economic and social awareness to find solutions to preserving our natural world. \r\n\r\n**[Soil Science](/degrees/soil-science-degree/)** \r\nSoil science degree programs are focused on the formation, ecology, and classification of soil. Students take courses in seed science, fertilizers, geology, weed science, and genetics.", "content_html": "

Forestry
\nForestry degree programs teach students how to conserve and manage forests through sustainable practices. This means the curriculum covers both preserving biodiversity, as well as producing wood products in ecologically responsible ways. Classes also address contemporary issues like climate change, carbon management, and how to plan and manage urban forests or green spaces in metropolitan areas.

\n

Hydrology
\nHydrology is about the active nature of water, the movement of precipitation. Hydrologists study surface waters like rivers, lakes, and streams and examine how rainfall and snowfall cause erosion, generate caves, and permeate soil and rock to become groundwater or flow to oceans and seas. Students of hydrology study these and other aspects of the field. They learn about water management methods, land use, environmental issues, and how to collect water data, interpret statistics, conduct computer modeling, and use geographic information systems (GIS) and the global positioning system (GPS).

\n

Manufacturing Engineering
\nDegree programs in manufacturing engineering teach the skills required to design, implement, monitor, and improve manufacturing processes to increase productivity.

\n

Natural Resource Management
\nNatural resource management is about finding ways to sustain the Earth\u2019s resources in the face of the growing human population. Majors in this discipline are typically passionate about clean water, clean energy, and clean environments. They study in the classroom, in the computer lab, and in the field and learn how to apply scientific and ecological knowledge, as well as economic and social awareness to find solutions to preserving our natural world.

\n

Soil Science
\nSoil science degree programs are focused on the formation, ecology, and classification of soil. Students take courses in seed science, fertilizers, geology, weed science, and genetics.

", "display_order": 3, "created_at": "2019-08-29T17:56:37.871254-07:00", "updated_at": "2021-12-08T13:49:02.600014-08:00"}, {"degree_id": 230, "page": 1, "title": "Skills You’ll Learn", "summary_markdown": "- Attention to detail \r\n- Complex problem solving \r\n- Computer and electronics savvy \r\n- Critical thinking \r\n- Judgement and decision making \r\n- Knowledge of design techniques, tools, and principles \r\n- Mathematics \r\n- Ongoing learning \r\n- Oral and written communication \r\n- Presentation skills \r\n- Production and processing \r\n- Project management \r\n- Safety awareness \r\n- Systems analysis \r\n- Time management", "content_markdown": "", "content_html": "", "display_order": 4, "created_at": "2019-08-29T17:56:37.874530-07:00", "updated_at": "2021-12-08T13:39:36.588206-08:00"}, {"degree_id": 230, "page": 1, "title": "What Can You Do with an Agricultural Engineering Degree?", "summary_markdown": "Agricultural engineers are hired by: \r\n\r\n- Agricultural chemical or fertilizer companies \r\n- Agricultural machinery manufacturers \r\n- Agricultural, biological, and engineering consulting firms \r\n- Agriculture and food processing research and development firms \r\n- Colleges, universities, and professional schools \r\n- Farms and farming cooperatives \r\n- Federal, state, and local government departments and agencies (example: Natural Resources Conservation Service) \r\n- Food inspection agencies \r\n- Irrigation and drainage system manufacturers \r\n- Power utilities \r\n- Alternate fuel producers", "content_markdown": "", "content_html": "", "display_order": 5, "created_at": "2019-08-29T17:56:37.876656-07:00", "updated_at": "2021-12-08T13:39:36.619543-08:00"}], "degree_specializations": []}">

什么是农业工程学位?

农业工程师将工程知识与生物科学相结合,提高可持续农业生产。他们设计灌溉,排水,洪水和水控制系统,畜舍结构,温室,筒仓,食品储存设施,食品加工厂,以及地面准备,播种,喷洒,收获和运输农产品的设备。

农业工程课程通过计算机辅助建模和工程、流体动力、测量和仪器仪表、农业机器人、自然资源保护和生物材料的工程特性等课程为学生的这一角色做好准备。

程序选项

笔记

  • 选择一个由工程技术认证委员会(ABET)认可的课程是很重要的。
  • 在一些学校,农业工程学位可以作为生物和农业工程学位提供。

农业工程学士学位-四年
农业工程学士学位课程的重点领域包括机械设计、结构、电子和控制系统、灌溉、农业安全、可再生能源和废物处理以及资源信息系统。

在这个阶段,学生还需要学习生物工程基础知识、微生物学、材料力学、普通化学、计算机编程、电子学、经济学、微积分、物理学和统计学等辅助课程。“边做边学”的实验和实地考察是课程的组成部分。

以下是该专业的核心课程简介:

  • 农业工程职业-介绍与农业工程和农业系统管理相关的职业;专业的工程注册流程;工程问题解决方案及报告格式;设计过程;工程基础
  • 实验室技能和安全-农业工程领域的制造和建筑材料介绍;木材,金属和混凝土项目的制作技能,以及创造性的设计;木材、紧固件、混凝土和学生设计项目的强度测试
  • 农业工程图形设计与CAD -工程设计与问题解决中的视觉传达;手绘和计算机辅助绘图(CAD)的原理;使用CAD软件;2 d预测;利用三维绘图软件进行土地定级设计
  • 三维固体建模-介绍三维建模使用最先进的软件;模型生成和修改
  • 电学基础-电在生物和农业工程中的应用;主题包括基本电路,布线材料,代码规定,电气测量,系统规划,电机,基本电子学,并介绍计算机的使用
  • 农业结构规划——生产系统设施的规划;农业建筑物建造所用的材料和工艺;影响作物储存结构和畜舍的环境因素;结构环境的设计,以满足商品、动物和植物的需求
  • 农业机械系统导论-介绍农业系统中用于动力和力的机械传动的要素
  • 灌溉原理-灌溉方法的土地分级设计、操作、管理和评价
  • 工程测量-使用水准仪、机器人站、实时运动学(RTK) GPS接收机和数据收集器的现场测量;地形测量、地形图绘制、建筑平面布置、道路设计;大地测量、航空测绘、地理信息系统(GIS)和遥感
  • 水力学-液体的静态和动态特性,开放和封闭通道中的流动,均匀和非均匀流动,流量测量和泵
  • 生物资源工程原理-生物过程技术在生物和农业系统中的理论和应用;生物材料和生物的工程特性;应用于生物加工技术的基本单元操作、流体力学和热/传质
  • 测量和计算机接口。农业工程中的传感器和工程测量主题包括换能器特性,信号处理器和控制器,仪器仪表技术,以及计算机在测量和控制中的典型工程问题的使用
  • 灌溉理论-植物-水-土壤关系研究蒸散发(陆地表面蒸发加上植物蒸腾的总和),植物胁迫,土壤水分和耗竭,灌溉频率和深度,盐度管理,渗透,排水和气候控制
  • 农业结构的环境控制——设计内部环境以满足商品、动物和植物的需要;农业结构的热力学和干湿学原理(涉及气体-蒸汽混合物的物理和热力学性质);传热、隔热、制冷;感知、监测和控制影响作物储存结构和动物住房的环境因素
  • 农业系统工程-工程和经济原理与数学优化技术相结合,以评估农业生产和加工系统的参数;项目规划技术,线性和非线性建模,响应面方法;农业工程方面的专业责任,包括伦理、专利、版权和责任
  • 灌溉工程。农田灌溉系统的设计;微型、地面和喷灌系统;运河和水泵;管道设计与保护的经济学与策略
  • 设备工程-专门的农业部件和设备的设计,制造和建造
  • 农业机器人和自动化-信号处理、控制理论、机器视觉和农业生产和加工机器人基础知识的农业应用;农业自动化和机器人在现场应用中的应用;工程方法解决问题和实验数据分析
  • 农业结构设计——农业服务和加工建筑的结构分析和设计;在轻型建筑中使用木材、金属和钢筋混凝土
  • 可持续社会的能源——如何从化石燃料过渡到可再生能源,包括水力、生物质能、太阳能和风能;节能
  • 水井和水泵-水井的钻探、设计和开发;泵特性及泵进气口设计;泵测试
  • 高级项目组织——高级团队项目的选择和组织;包括时间管理,研究技术,预算,项目演示和团队经验的文档
  • 高级项目操作、测试和安全-为早期课程中制作的项目准备操作、维护和安全手册;开发备忘录和视频,记录设计、制造和测试阶段;最后的小组口头报告

农业工程硕士学位-两年制
在硕士阶段,学生从一系列感兴趣的领域中选择论文研究项目和辅助课程。

研究样本领域

  • 可再生生物燃料
  • 生物纳米材料(部分或完全由生物分子组成的分子材料,如抗体、蛋白质/酶、DNA、病毒和细胞)
  • Bioproducts发展
  • 合成生物工程
  • 生物和食品加工工程
  • 生物传感器和仪器
  • 食品安全工程
  • 可持续用水和土地利用的自然资源工程
  • 生物废弃物管理与利用
  • 生态系统
  • 用于生物质/生物能源生产和原料物流的机器系统
  • 植物、动物和微生物生产系统
  • 农业安全和卫生
  • 颗粒材料加工与建模
  • 三农业及生物设施之结构及控制环境
  • 生物系统建模

农业工程博士学位,4 - 5年
农业工程博士学位的目标是对强烈的独立学习和研究感兴趣的学生。该项目包括书面和口头综合初试、高级课程、扩展和深入研究、书面论文和最终的研究答辩。

这些是共同的专业领域和每个领域可能的研究主题:

生物过程工程

  • 碳捕获、封存和利用
  • 将生物质转化为生物燃料和生物制品
  • 药品/保健品
  • 发酵及产品分离技术
  • 生物制品之加工、搬运及贮存
  • 工业酶反应
  • 传感器和计算机技术用于过程控制系统的开发

农业受控环境

  • 水产养殖工程
  • 农业空气质量
  • 收获后工序

数据分析与集成建模

  • 识别食品、水和能源系统的风险
  • 食物,水和能源系统的联系
  • 技术经济评价
  • 生命周期评估
  • 系统及流程优化

生态工程

  • 溪河修复
  • 栖息地的重建
  • 生物工程
  • 生态保育、湿地保护与修复
  • 绿色基础设施

环境工程

  • 水和空气污染控制
  • 环境修复与保护
  • 灌溉排水
  • 液体和固体废物管理
  • 低影响开发
  • 雨水管理
  • 水资源工程
  • 生物修复
  • 水和废水处理
  • 公共卫生和水质
  • 土地管理
  • 环境政策与法律
  • 环境流体力学
  • 河流水力学与泥沙输运

“精准农业与机器系统”

  • 决策支持系统
  • GPS和遥感系统
  • 精准农业、智能机械
  • 机器系统与机器人

可持续废物管理

  • 动物废物管理系统
  • 废水和固体废物处理
  • 动物营养管理
  • 废物利用
  • 牲畜空气质量和气味
  • 土地申请系统
  • 动物应急管理

学位与农业工程类似

农业
该学科的学位课程教授学生一般农业的一个或多个方面。课程可能涵盖农场管理、作物科学、畜牧业、农业技术、土壤科学和食品分配等主题。

生物化学
生物化学的重点是发生在生物物质中的化学过程和反应。生物化学家将生物学和化学的原理应用于许多不同领域的问题,包括环境、医学和健康、工业和制造业、农业、生物燃料和海洋科学。

生物技术
该领域的专业研究工程和生命科学,为农业、工业和环境行业创造新产品,如疫苗、药物、植物生长激素和食品添加剂。典型的课程有生物化学、普通生物学、细胞生物学、化学和遗传学。

土木工程
该学位领域主要研究道路、隧道、桥梁、大坝、铁路和机场等民用基础设施的设计和规划过程。在他们的工作中,土木工程师关心的事情,如结构可以承受多少重量,以及建筑所带来的环境问题。土木工程学位课程的重点是数学、统计学、工程系统和力学、建筑规范和统计分析。

环境工程
环境工程专业的学生学习如何将工程学、土壤科学和化学原理应用于环境保护和恢复。他们研究了气候变化、污染、森林砍伐、能源供应和人口增长等问题。

食品科学
食品科学学位课程的主题涵盖生物学、生物化学和化学工程等领域。学生将学习如何应用这些基础知识来研究食物特性并开发可持续的食物。

林业
林业学位课程教授学生如何通过可持续的实践来保护和管理森林。这意味着课程既包括保护生物多样性,也包括以生态负责任的方式生产木材产品。课程还涉及当代问题,如气候变化,碳管理,以及如何规划和管理城市森林或都市绿地。

水文
水文学是关于水的活动性质,即降水的运动。水文学家研究河流、湖泊和溪流等地表水,研究降雨和降雪是如何引起侵蚀、形成洞穴、渗透土壤和岩石成为地下水或流入海洋的。水文学专业的学生研究该领域的这些方面和其他方面。他们学习水管理方法,土地使用,环境问题,以及如何收集水数据,解释统计数据,进行计算机建模,并使用地理信息系统(GIS)和全球定位系统(GPS)。

制造工程
制造工程学位课程教授设计、实施、监控和改进制造过程以提高生产率所需的技能。

自然资源管理
自然资源管理是在面对不断增长的人口时寻找维持地球资源的方法。该专业的学生通常热衷于清洁水、清洁能源和清洁环境。他们在教室、计算机实验室和实地学习,学习如何应用科学和生态知识,以及经济和社会意识,找到保护我们的自然世界的解决方案。

土壤科学
土壤科学学位课程的重点是土壤的形成、生态学和分类。学生们要学习种子学、肥料学、地质学、杂草学和遗传学等课程。

你将学会的技能

  • 注重细节
  • 解决复杂问题
  • 精通计算机和电子产品
  • 批判性思维
  • 判断和决策
  • 了解设计技术、工具和原则
  • 数学
  • 持续的学习
  • 口头和书面交流
  • 演讲技巧
  • 生产加工
  • 项目管理
  • 安全意识
  • 系统分析
  • 时间管理

拥有农业工程学位你能做什么?

农业工程师受雇于以下公司:

  • 农业化学或化肥公司
  • 农业机械制造商
  • 农业,生物和工程咨询公司
  • 农业和食品加工研发公司
  • 学院、大学和职业学校
  • 农场和农业合作社
  • 联邦、州和地方政府部门和机构(例如:自然资源保护署)
  • 食品检验机构
  • 排灌系统厂家
  • 电力公司
  • 替代燃料生产商

学费

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