ESD protection is essential for preventing static electricity from damaging sensitive electronic components during manufacturing, handling, and storage. This guide explains how grounding, ionization, humidity control, protective packaging, and facility design work together to reduce electrostatic discharge risks and create a comprehensive static control program.
Ido Goldstein
Chief Technology Officer at Smart Fog
Author
Ido Goldstein is a technology innovator with deep expertise in humidity engineering, climate control, and non-wetting fog systems. He has spent years advancing energy-efficient and water-smart solutions that help industries like cleanrooms, data centers, wineries, and greenhouses maintain precise environmental control.
Passionate about technology with real-world impact, Ido also supports sustainable agriculture initiatives and nonprofit innovation. Through this blog, he shares practical insights on HVAC advancements, indoor air quality, and the science behind high-performing environments.
ESD System Installation: Planning, Setup, and Commissioning Guide
ESD system installation requires careful coordination of grounding infrastructure, humidity control, conductive flooring, and supplemental protection methods to create reliable static control throughout manufacturing facilities. This guide outlines the planning, installation, commissioning, and compliance verification steps needed to build an integrated ESD protection system that meets ANSI/ESD S20.20 requirements and supports long-term production reliability.
ESD Damage: What It Costs, How It Happens, and How to Prevent It
ESD damage costs electronics manufacturers billions each year, with most failures remaining hidden until products reach the field. Learn how electrostatic discharge occurs, why low humidity increases risk, and the most effective methods for preventing costly component failures and warranty claims.
ESD Flooring Testing: Standards, Methods, and Pass/Fail Criteria
ESD flooring testing verifies that static-control floors meet ANSI/ESD S7.1 requirements for safely dissipating electrostatic charges in electronics manufacturing and other sensitive environments. This guide explains the required resistance measurements, testing procedures, pass/fail criteria, equipment requirements, and the critical role environmental conditions play in obtaining accurate, compliant results.
Electrostatic Sprayers: How They Work, Uses, and How They Compare to Fogging
Electrostatic sprayers use electrically charged disinfectant droplets to improve surface coverage, helping droplets wrap around conductive surfaces rather than travelling in a straight spray pattern. This guide explains how electrostatic spraying works, where it is most effective, its limitations on non-conductive materials, and how it compares with fogging systems that achieve uniform coverage through droplet engineering rather than electrical charge.
Anti-Static Control: Materials, Methods, and Environments That Eliminate Static
Anti-static control requires more than wrist straps and ionizers. Effective static elimination depends on a coordinated approach that combines conductive materials, grounding systems, ionization equipment, and environmental humidity control. This guide explains how each method works, where it fits within a comprehensive ESD program, and why maintaining optimal humidity levels often provides the most effective way to prevent static buildup before it becomes a problem.
Solenoid Valve Troubleshooting: How to Fix, Clean, and Maintain Stuck Valves
Solenoid valve failures can lead to downtime, reduced system performance, and costly maintenance if not diagnosed quickly. In this article, you’ll learn how to identify common electrical and mechanical valve issues, carry out effective troubleshooting and cleaning procedures, and implement preventive maintenance practices that help extend service life and improve reliability.
Data Center Cooling: Methods, Technologies, and the Role of Evaporative Systems
Data center cooling is essential for managing the growing heat loads generated by modern IT infrastructure while maintaining the environmental conditions needed for reliable operation. In this article, you’ll learn how air, liquid, and evaporative cooling technologies compare, where each solution performs best, and how precise temperature and humidity control help improve energy efficiency, equipment protection, and long-term data center performance.
Static Charge Elimination in Printing: Fixing Paper Misfeeds, Ink Misting, and Registration Errors
Static electricity is a common cause of paper jams, ink misting, and registration errors in printing environments, leading to wasted materials and interrupted production. In this article, you’ll learn how static charges develop during printing operations, compare the main elimination methods available, and discover how humidity control can prevent static buildup across an entire facility.
Data Center Cooling: Methods, Technologies, and the Role of Evaporative Systems
Data center cooling is about more than removing heat. It requires balancing temperature, humidity, energy efficiency, and equipment protection to maintain reliable operations. In this article, you’ll learn how air, liquid, and evaporative cooling technologies work, where each approach is most effective, and how precision environmental control helps improve efficiency while reducing risks such as overheating and electrostatic discharge.












