Operation of Residential Irrigation Timers

Residential Irrigation System Rainfall Shutoff Devices, or Rain Sensors

Home Irrigation and Landscape Combinations for Water Conservation in Florida

Automatic Irrigation Based on Soil Moisture for Vegetable Crops

Summary of UF/IFAS Turf and Landscape Irrigation Recommendations

Smart Irrigation Controllers: How Do Soil Moisture Sensor (SMS) Irrigation Controllers Work?

Smart Irrigation Controllers: What Makes an Irrigation Controller Smart?

Smart Irrigation Controllers: Programming Guidelines for Evapotranspiration-Based Irrigation Controllers

Smart Irrigation Controllers: Operation of Evapotranspiration-Based Controllers

Evapotranspiration-Based Irrigation for Agriculture: Sources of Evapotranspiration Data for Irrigation Scheduling in Florida

Evapotranspiration-Based Irrigation for Agriculture: Crop Coefficients of Some Commercial Crops in Florida

Evapotranspiration-Based Irrigation Scheduling for Agriculture

Evapotranspiration-Based Irrigation for Agriculture: Implementing Evapotranspiration-Based Irrigation Scheduling for Agriculture

Step by Step Calculation of the Penman-Monteith Evapotranspiration (FAO-56 Method)

Interpretation of Soil Moisture Content to Determine Soil Field Capacity and Avoid Over-Irrigating Sandy Soils Using Soil Moisture Sensors

Frequency of Residential Irrigation Maintenance Problems

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

Interpretación del Contenido de la Humedad del Suelo para Determinar Capacidad de Campo y Evitar Riego Excesivo en Suelos Arenosos Utilizando Sensores de Humedad

Estimated Water Savings Potential of Florida-Friendly Landscaping Activities

Microirrigation for Home Landscapes

Urban Fertilizer Ordinances in the Context of Environmental Horticulture and Water Quality Extension Programs: Frequently Asked Questions

Basic Tips for Designing Efficient Irrigation Systems

Consejos basicos para diseñar sistemas eficientes de riego

Methods to Quantify In-Field Nutrient Leaching

Principles and Practices of Irrigation Management for Vegetables

Chapter 3. Principles and Practices of Irrigation Management for Vegetables

Fertilization and Irrigation Needs for Florida Lawns and Landscapes

Estimating Benefits of Residential Outdoor Water Conservation: A Step-by-Step Guide

Who Is Interested in Purchasing Smart Irrigation Systems?

Homeowners' Preferences for Smart Irrigation Systems and Features

Toward Sustainable Urban Landscape Management: Floridians' Perceptions of Residential Landscapes and Their Maintenance Requirements

Floridian Households’ Perceptions of Florida-Friendly Landscapes

Using Economic Incentives to Encourage Sustainable Alternative Residential Landscaping Practices in Florida

US Consumer Preferences for Home Lawn Fertilizers

Household Water Usage and Irrigation Practices

Subsurface Drip Irrigation (SDI) for Enhanced Water Distribution: SDI—Seepage Hybrid System

Minimum Number of Soil Moisture Sensors for Monitoring and Irrigation Purposes

Drip Irrigation: The BMP Era—An Integrated Approach to Water and Fertilizer Management for Vegetables Grown with Plasticulture

How to Conduct an On-Farm Dye Test to Improve Drip Irrigation Management in Vegetable Production

Effects of Urban Fertilizer Ordinances on Water Quality

A 2021 Snapshot of Citizens’ Awareness and Understanding of Florida’s Irrigation Restrictions

Frequently Asked Questions about Landscape Irrigation for Florida-Friendly Landscaping Ordinances