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.
The true cost of industrial humidification extends beyond the purchase price to include maintenance, energy consumption, downtime, and humidity-related production losses. Evaluating total cost of ownership helps facilities select systems that deliver reliable performance while minimising long-term operational expenses.
In-duct humidifiers introduce moisture directly into an HVAC airstream, providing consistent humidity control across large industrial and commercial facilities. Selecting the right technology helps maintain precise humidity levels while reducing maintenance, preventing surface wetting, and supporting reliable process control.
Maintaining stable humidity is essential for consistent digital print quality, helping prevent paper curl, static buildup, misfeeds, and print registration errors before they affect production. This guide explains why the industry targets 45–55% relative humidity, how humidity influences substrates and print equipment, and why precision, non-wetting humidification is critical for reliable digital printing performance.
Indoor humidity affects far more than comfort. Research shows it influences respiratory health, skin hydration, eye comfort, sleep quality, and overall wellbeing. This guide explores what the evidence says about the ideal indoor humidity range, the health effects of air that is too dry or too humid, and how maintaining 40–60% relative humidity supports healthier indoor environments.
Maintaining the right indoor humidity helps reduce airborne particulates, minimise static electricity, and create healthier working conditions in industrial facilities. Precision humidification supports both workforce wellbeing and operational efficiency by maintaining stable environmental conditions throughout the production area.
Maintaining the correct humidity after harvest is essential for preserving produce quality, reducing weight loss, and extending shelf life. Precision industrial humidification helps cold storage facilities protect crop value while minimising spoilage and food safety risks.
Maintaining indoor humidity between recommended levels helps reduce dry-air irritation associated with sick building syndrome while supporting healthier indoor environments. When combined with proper ventilation and HVAC maintenance, precise humidification contributes to better occupant comfort, air quality, and building performance.
An ESD Protected Area (EPA) provides a controlled environment where grounding, conductive materials, and environmental controls work together to prevent electrostatic discharge damage to sensitive electronic components. This guide explains how to design and maintain an ANSI/ESD S20.20-compliant EPA, covering workstation setup, flooring, signage, compliance testing, and the critical role of precise humidity control in preventing static generation
Different industrial humidifier technologies offer distinct advantages depending on the application, precision requirements, and operating environment. Understanding how steam, adiabatic, ultrasonic, and evaporative systems work helps facilities choose the most effective solution for reliable humidity control.
Electrostatic discharge can occur through several different pathways, each posing unique risks to sensitive electronic components and manufacturing equipment. This guide explains the three primary ESD discharge models—Human Body Model (HBM), Charged Device Model (CDM), and Machine Model (MM)—how they differ, where they occur in real-world facilities, and why maintaining proper humidity levels helps reduce the risk across all three.