Turner Designs

Where Did PFAS Come From?

PFAS (Per- and Polyfluoroalkyl Substances) weren't created by accident. They were developed to solve real-world problems.

Beginning in the 1940s, scientists engineered these synthetic compounds because of their remarkable ability to resist heat, oil, grease, water, and chemicals.

Their unique properties quickly made them valuable across a wide range of industries.

Today, PFAS have been used in applications such as:

Firefighting foams
Non-stick cookware
Water- and stain-resistant textiles
Food packaging
Industrial manufacturing
Electronics
Aerospace and defense

For decades, these materials helped improve product performance, safety, and durability.

As research has expanded, we've also gained a better understanding of how some PFAS compounds behave once they enter the environment. That growing body of knowledge has led to increased interest in monitoring, managing, and better understanding these compounds in our water resources.

At Turner Designs, we believe innovation starts with education. Understanding where PFAS came from helps us better understand the challenges that lie ahead.

Have a question, comment or concern about PFAS? Share it here: https://www.turnerdesigns.com/pfas-interest

Follow along as we continue Shining a Light on PFAS.

PFAS Landing Page | Turner Designs

PFAS are everywhere, but what exactly are they?

You've probably seen the headlines about PFAS, often referred to as "forever chemicals." But why are they receiving so much attention?

PFAS (Per- and Polyfluoroalkyl Substances) are a large family of man-made chemicals that have been used in products like firefighting foams, non-stick cookware, stain-resistant fabrics, food packaging, and many industrial processes for decades.

Their strength is also their biggest challenge. They don't readily break down in the environment. As a result, PFAS can accumulate in water sources, soils, wildlife, and even people over time.

As regulations continue to evolve around the world, the demand for faster, more practical ways to detect PFAS is growing.

At Turner Designs, we're exploring how fluorescence technology may contribute to the future of rapid PFAS detection. While there is still work to be done, we believe innovation starts with understanding the problem.

Over the coming weeks, we'll be sharing more about PFAS, the challenges surrounding detection, and the technologies that may help move our industry forward.

Follow along as we shine a light on PFAS.
https://lnkd.in/gmjdBrCc

PFAS is one of the most significant water quality challenges facing our industry. What if detection could become faster, simpler, and more accessible?

At Turner Designs, we're actively exploring rapid solutions for PFAS detection. While our work is still in development, we believe the best innovations come from collaborating with the people who are tackling these challenges every day.

We're looking for input from:
Water and wastewater professionals
Industrial facilities
Environmental laboratories
Researchers
System integrators
Consultants and regulators

We'd love to hear your thoughts on the question below!
If you could change just one thing about PFAS detection today, what would it be?

What challenges do you face? What questions do you have? Where do you see the biggest opportunities for innovation?
Drop your thoughts in the comments or send us a message here.

https://lnkd.in/gmjdBrCc

Your feedback will help guide the development of practical tools that make a real difference.

Together, we can help shape the future of rapid PFAS detection.

Why is everyone suddenly talking about PFAS?
The truth is, PFAS isn't new.

These compounds have been used for decades in products ranging from firefighting foams and industrial processes to stain-resistant fabrics, food packaging, and non-stick cookware. Their unique chemistry made them incredibly useful. That same chemistry also makes them incredibly persistent in the environment.

As scientists continue to learn more about PFAS, and as regulations continue to evolve, the demand for faster, more practical detection methods is growing.

At Turner Designs, we believe innovation starts with understanding the challenge. That's why we're launching our "Shining a Light on PFAS" series. We will explore the science, the challenges, and the future of PFAS detection.

Over the coming weeks, we'll discuss:
Where PFAS come from
Why they're difficult to detect
How they're impacting water resources
How the regulatory landscape is evolving
And how new technologies may help improve rapid detection.

Whether you're a researcher, utility operator, consultant, regulator, or simply interested in protecting our water resources, we invite you to follow along.

Together, let's shine a light on PFAS.
https://lnkd.in/gmjdBrCc

PFAS is one of the most significant water quality challenges facing our industry. What if detection could become faster, simpler, and more accessible?

At Turner Designs, we're actively exploring rapid solutions for PFAS detection. While our work is still in development, we believe the best innovations come from collaborating with the people who are tackling these challenges every day.

We're looking for input from:
- Water and wastewater professionals
- Industrial facilities
- Environmental laboratories
- Researchers
- System integrators
- Consultants and regulators

We'd love to hear your thoughts on the question below!
If you could change just one thing about PFAS detection today, what would it be?

What challenges do you face? What questions do you have? Where do you see the biggest opportunities for innovation?
Drop your thoughts in the comments or send us a message here.
https://lnkd.in/gmjdBrCc

Your feedback will help guide the development of practical tools that make a real difference.

Together, we can help shape the future of rapid PFAS detection.

Researchers around the world are using fluorescence to better understand industrial process monitoring. Have you published work using Turner Designs instruments? We’d love to feature your research and share it with the community. Reach out or drop your paper below.