Dukes, Michael D.
Biography
professor, UF/IFAS Agricultural and Biological Engineering Department, and director, Center for Land Use Efficiency, Gainesville, FL
Publications
- A 2021 Snapshot of Citizens’ Awareness and Understanding of Florida’s Irrigation Restrictions
- Automatic Irrigation Based on Soil Moisture for Vegetable Crops
- Basic Tips for Designing Efficient Irrigation Systems
- Chapter 3. Principles and Practices of Irrigation Management for Vegetables
- Consejos Basicos para Diseñar Sistemas Eficientes de Riego
- Drip Irrigation: The BMP Era—An Integrated Approach to Water and Fertilizer Management for Vegetables Grown with Plasticulture
- Estimated Water Savings Potential of Florida-Friendly Landscaping Activities
- Estimating Benefits of Residential Outdoor Water Conservation: A Step-by-Step Guide
- Evapotranspiration-Based Irrigation for Agriculture: Crop Coefficients of Some Commercial Crops in Florida
- Evapotranspiration-Based Irrigation for Agriculture: Implementing Evapotranspiration-Based Irrigation Scheduling for Agriculture
- Evapotranspiration-Based Irrigation for Agriculture: Sources of Evapotranspiration Data for Irrigation Scheduling in Florida
- Evapotranspiration-Based Irrigation Scheduling for Agriculture
- Fertilization and Irrigation Needs for Florida Lawns and Landscapes
- Floridian Households’ Perceptions of Florida-Friendly Landscapes
- Frequency of Residential Irrigation Maintenance Problems
- Frequently Asked Questions about Landscape Irrigation for Florida-Friendly Landscaping Ordinances
- Home Irrigation and Landscape Combinations for Water Conservation in Florida
- Homeowners' Preferences for Smart Irrigation Systems and Features
- Household Water Usage and Irrigation Practices
- How to Conduct an On-Farm Dye Test to Improve Drip Irrigation Management in Vegetable Production
- Interpretación del Contenido de la Humedad del Suelo para Determinar Capacidad de Campo y Evitar Riego Excesivo en Suelos Arenosos Utilizando Sensores de Humedad
- Interpretation of Soil Moisture Content to Determine Soil Field Capacity and Avoid Over-Irrigating Sandy Soils Using Soil Moisture Sensors
- Methods to Quantify In-Field Nutrient Leaching
- Microirrigation for Home Landscapes
- Minimum Number of Soil Moisture Sensors for Monitoring and Irrigation Purposes
- Net Irrigation Requirements for Florida Turfgrass Lawns: Part 1—Report of Gathered Weather Data and Quality Check
- Net Irrigation Requirements for Florida Turfgrass Lawns: Part 2—Reference Evapotranspiration Calculation
- Net Irrigation Requirements for Florida Turfgrass Lawns: Part 3—Theoretical Irrigation Requirements
- Operation of Residential Irrigation Timers
- Principles and Practices of Irrigation Management for Vegetables
- Residential Irrigation System Rainfall Shutoff Devices, or Rain Sensors
- Smart Irrigation Controllers: How Do Soil Moisture Sensor (SMS) Irrigation Controllers Work?
- Smart Irrigation Controllers: Operation of Evapotranspiration-Based Controllers
- Smart Irrigation Controllers: Programming Guidelines for Evapotranspiration-Based Irrigation Controllers
- Smart Irrigation Controllers: What Makes an Irrigation Controller Smart?
- Subsurface Drip Irrigation (SDI) for Enhanced Water Distribution: SDI—Seepage Hybrid System
- Summary of UF/IFAS Turf and Landscape Irrigation Recommendations
- Toward Sustainable Urban Landscape Management: Floridians' Perceptions of Residential Landscapes and Their Maintenance Requirements
- Urban Fertilizer Ordinances in the Context of Environmental Horticulture and Water Quality Extension Programs: Frequently Asked Questions
- US Consumer Preferences for Home Lawn Fertilizers
- Using Economic Incentives to Encourage Sustainable Alternative Residential Landscaping Practices in Florida
- Who Is Interested in Purchasing Smart Irrigation Systems?
