The Temperature and Viscosity Blog

The image of fouled sensors requiring constant attention comes from industrial instrumentation of decades past. Modern viscosity sensors are engineered specifically for paint environments with features that minimize maintenance. Most facilities complete sensor maintenance in 15-30 minutes during planned downtime or shift changes. This isn't exotic laboratory equipment requiring specialized technicians; it's robust industrial instrumentation designed for production environments.

There's a peculiar middle ground many paint operations occupy. They've invested in automated viscosity monitoring but still make manual adjustments. Operators watch real-time viscosity readings on screens, then walk to the paint kitchen to manually add solvent when needed. The reluctance to enable automatic solvent addition stems from a belief that experienced operators make better adjustment decisions than algorithms. But what happens during manual correction?

Why fix what isn't broken? This perceived reliability of manual methods is a barrier to automation because it's rooted in partial truth. Manual methods can work. The question is whether "working" is the same as "optimal”, and whether that gap is costing you more than you realize. The comfort of familiar manual methods is a competitive liability disguised as operational stability.

The concern about switching between different paint formulations assumes that automated systems can only handle one product at a time. Modern viscosity control systems are essentially industrial computers with recipe management software. If your paint chemistry were simple and invariant, you wouldn't need sophisticated control. It's precisely because your coatings are complex that you need automation to manage them properly.

Manual viscosity checks feel inexpensive because the costs are diffuse and largely invisible on financial statements. Consider what's actually happening: operators stop production multiple times per shift to run viscosity cup tests. Each test takes 5-10 minutes when you account for walking to the booth, running the test, making adjustments, and documenting results. Across multiple shifts and paint lines, this easily consumes 2-3 hours of labor daily.

Viscosity control follows a logical progression: start with monitoring, implement automated control, and only add temperature management if needed. This staged approach prevents over-engineering while ensuring you address actual problems rather than theoretical ones.

Viscosity cups are the same basic technology that's been around for nearly a century. While these simple gravity-fed devices have their place, they present serious limitations when controlling material viscosity in automated painting applications.

Rising costs, quality control, and evolving regulations are key hurdles for industrial coaters. This blog explores how automation, viscosity control, and smart investments can boost efficiency and competitiveness.

The blog discusses orange peel, a paint defect caused by high viscosity and improper solvent addition, which prevents a smooth finish. It highlights the need to optimize viscosity and solvent use, along with proper application techniques, to achieve a defect-free coating.

Consistency in temperature and viscosity is crucial for achieving high-quality, reliable coatings. Fluctuations can lead to issues like uneven film thickness, color mismatches, and reduced performance. Implementing process control systems to stabilize these factors ensures more predictable results, less waste, and greater efficiency.

This blog will explore why maintaining the right temperature is important when dispensing 100% solids UV-cured coatings.

When you can connect fluctuating temperature and changing viscosity to the actual issues in your process that are costing you (i.e., defects, scrap, rework, production downtime), you move from the hypothetical to the concrete. And you are left with key data displaying both cause and effect.

Automation will transform your process and strategically position you for a future driven by data. However, automating your entire system will present its own set of challenges: many processes face communication issues, misaligned interests, and difficulty balancing various factors.

In this short video, we dive into the crucial role of process control in industrial painting systems. When it comes to achieving top-tier paint quality, controlling viscosity is essential. Join us as we explore.

Over the past 30+ years, we have been fortunate to have been included in several migrations from manual applications to automated applications. Last month we visited an automation company, and it made me realize how much more manufacturing will become automated. It seems like as quickly as the experienced workforce is evaporating, the automation equipment...

Rob Gladstone President, Saint Clair Systems View Posts Home » Blog » I control plant temperature. Isn’t that enough for my dispensing application? When we talk about point-of-application fluid temperature…

Somebody asked me the other day, “What’s the payback period on your equipment?” The reality is it varies. Not only the payback period, (which averages about nine months), but the way our customers calculate it. It’s typically not just one thing. Here is a quick summary of common ways companies have been able to justify buying one of our solutions.

Industrial coating process operators experiencing defects should look past the fault of a material supplier's specifications and product and examine the variables that impact material environment. Solution: consider automated viscosity control.

Saint Clair Systems' Jill Christoff shares the process of elimination used in identifying if temperature is negatively impacting your process.

A fresh perspective in understanding the importance of viscosity in industrial fluid dispensing systems.

Controlling temperature in the mix room is a great start, but doesn't control If intermittent quality issues like: transfer efficiency, VOC concerns, or excessive solvent usage. A fully-automated fluid dispensing operation may be needed.

The differences between an inline heater and a temperature control system will make a big difference in your fluid process efficiency.

Monitoring Versus Controlling Viscosity Rob Gladstone President, Saint Clair Systems View Posts Home » Blog » Monitoring Versus Controlling Viscosity Video At Saint Clair Systems, we’re fortunate to be able…

If you consistently add solvent or water to your paint formulations, you may be creating conditions you don't want.

Will your viscosity control and fluid dispensing measuring processes retire when your most valuable employee does?

A Temperature Control System is essential – and so is having the right system for your unique process. We can get you there.

Saint Clair Systems discusses the importance of empowering the younger generation of industrial paint operators and how this will benefit your operation.