ASHRAE humidity standards are only meaningful if facilities can consistently maintain the environmental conditions they specify. Whether the priority is protecting sensitive equipment, supporting patient safety, or maintaining indoor air quality, humidity control depends on reliable monitoring, precise system performance, and ongoing compliance management.
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.
Dust Suppression Systems: How Fog-Based Humidity Controls Airborne Particles
Fog-based dust suppression captures airborne particles through droplet-particle collision and electrostatic attraction. This guide explains the physics, system types, indoor vs outdoor applications, and how Smart Fog’s MS100 controls dust without wetting surfaces.
Warehouse Humidifier Systems: Controlling Humidity in Large Facilities
Large warehouses lose humidity faster than any other commercial facility. This guide covers how to size and select an industrial humidifier for large spaces, why non-wetting dry fog outperforms traditional misting, and how humidity control eliminates static risk across warehouse operations.
Wine Cellar Humidity: Maintaining 50–70% RH for Perfect Aging
Wine needs stable humidity to age properly. This guide explains the 50–70% RH range, risks of dry or damp cellars, and how to maintain conditions that protect corks, labels, and long-term wine quality.
Ideal Indoor Humidity: What’s Normal, Comfortable, and Safe
Ideal indoor humidity supports comfort, health, and home protection. Learn normal RH ranges, seasonal changes, room-by-room needs, and practical control methods.
Adiabatic Humidification: How It Works and Why It Uses 90% Less Energy
Adiabatic humidification uses natural evaporation to add moisture without steam. This guide explains how it saves energy, supports HVAC performance, and why dry fog is ideal for sensitive industrial spaces.
Best Humidity Level for Sleeping: What Science Says
The best humidity for sleeping is 40% to 60% RH. Here’s how humidity affects breathing, temperature regulation, and sleep quality. This guide also gives you the information you need to maintain ideal humidity levels for better sleep.
Low Humidity in the Printing Industry: Effects, Risks, and Pressroom Solutions
Low humidity is a leading cause of print quality issues, contributing to paper curl, static buildup, ink adhesion problems, and inconsistent colour reproduction across printing processes. This guide explains how dry air affects paper, ink, and press performance, the recommended humidity ranges for different printing methods, and how precision humidity control helps maintain reliable production and consistent print quality.
What Is Considered Low Humidity? Signs, Causes, and How to Fix It
Relative humidity below 30% is generally considered low. Learn the signs, causes, and how to fix dry air at home and in commercial facilities where static, material damage, and compliance are at risk.
Temperature and Humidity Data Loggers: What They Are and When You Need One
Temperature and humidity data loggers record environmental conditions over time, helping facilities track changes, catch excursions, and support compliance records.












