Standard rubber does not prevent static electricity. This guide explains the difference between insulating, conductive, and static dissipative rubber, covers the resistivity thresholds that define ESD-compliant materials, and explains why grounding and humidity both affect real-world performance.
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.
What Is an Anti-Static Wrist Strap and Does It Really Protect Components?
An anti-static wrist strap grounds your body to prevent electrostatic discharge, but it does not address ambient charge in your workspace. This guide explains how the strap works, how to use it correctly, and what it cannot protect against on its own.
Can Static Electricity Start a Fire? Risks in Industrial Facilities
Static electricity can start a fire when electrostatic discharge meets a flammable or combustible material above its minimum ignition energy threshold. This article explains the mechanism, the industrial environments where risk is highest, and the facility controls that reduce it.
How Many Volts Is Static Electricity? Why It Matters for Electronics
Static electricity commonly reaches thousands of volts, but electronics components fail at voltages far below what humans can feel. This article explains the voltage ranges, the physics behind why high-voltage static is usually non-lethal, and why humidity control addresses ESD risk at its source.
How to Control Static Electricity in a Manufacturing Facility
Static electricity is not just a nuisance in manufacturing environments. It damages sensitive components, creates fire risk near flammables, and disrupts production. This guide covers grounding, ESD materials, ionization, and humidity control, ranked by scope and cost-effectiveness.
How Does Static Electricity Work? From Electrons to Production Floors
Static electricity is a charge imbalance caused by electron transfer between materials. This guide covers the atomic mechanism, what triggers discharge, and why dry air makes static problems worse in manufacturing and electronics environments.
Smart Fog for Pharmaceutical Manufacturing: Precision Humidity Control for GMP-Compliant Facilities
Pharmaceutical manufacturing requires precise, validated humidity control across every process area. This guide explains GMP requirements, RH targets by application, and how Smart Fog’s non-wetting humidification supports compliance without introducing condensation, microbial risk, or surface contamination.
Humidifier for Skin: How Dry Indoor Air Damages Skin and What to Do About It
Low indoor humidity causes the skin barrier to lose moisture faster, leading to dryness, irritation, and flakiness. This guide explains the mechanism, the optimal humidity range for skin health, and how humidification addresses it at home and in the workplace.
How Humidifiers Produce Dust Suppression in Industrial Facilities
Humidifiers suppress dust by introducing fine water droplets that capture and weigh down airborne particles. This article explains the mechanism, the facility types where it works best, and how fog-based systems compare to alternative dust control methods.
Does a Humidifier Help with Dry Skin? What to Look For and How It Works
Dry indoor air increases transepidermal water loss and strips moisture from the skin. This guide explains how room humidifiers relieve dry and itchy skin, which type works best, and what humidity level to maintain for lasting skin comfort.












