Recently, the National Fire Protection Association (NFPA) funded a report that looks to gather information regarding explosions in ovens, furnaces, and dryers. The report was prepared by Sreenivasan Ranganathan and Sean Gillis of the Fire Protection Research Foundation. The report is important work that will be used by the NFPA technical committee during review of the upcoming code revisions.

Many pollutants, both natural and synthetic, are gaseous in nature and require specific technology to effectively remove the pollutant from an exhaust or process gas stream. Gaseous industrial pollutants can include:  

A Regenerative Thermal Oxidizer (RTO) is an air pollution control device that is designed to destroy VOC, HAP, and odorous compounds in order to meet air pollution control regulations.  RTOs can be used in small applications (4,000 scfm) to large ones (+100,000 scfm). There are many manufactures of RTOs with a wide variety of media, valves, and overall designs. While there are a lot of differences among the RTOs, one thing is true no matter which system you have installed in your plant: your RTO needs maintenance. 

One question which we frequently receive is about the length of the process of building and installing an oxidizer. There are many factors which influence the oxidizer installation process, including the client’s procurement process and the complexity of the equipment and location of the site. In this series of blogs, we’ve been taking a look at a typical industrial process utilizing a standard thermal oxidizer, catalytic oxidizer, or regenerative thermal oxidizer. We’ve previously discussed the timelines for the client buying process and oxidizer delivery and installation. In this final blog, we’ll look at the timeline for compliance testing.

Many pollutants, both natural and synthetic, are gaseous in nature and require specific technology to effectively remove the pollutant from an exhaust or process gas stream. Gaseous industrial pollutants can include: 

Ammonia (NH₃) is one of the most commonly produced industrial chemicals in the United States. It is used in industry and commerce, and it also exists naturally in humans and in the environment. Ammonia is essential for many biological processes and serves as a precursor for amino acid and nucleotide synthesis. In the environment, ammonia is part of the nitrogen cycle and is produced in soil from bacterial processes. Ammonia is also produced naturally from decomposition of organic matter, including plants, animals, and animal wastes.

Air pollution control is a complicated subject, but it is incredibly important for any company that uses industrial processes to understand how to manage the volatile organic compounds (VOCs) and hazardous air pollutants (HAPs) that they produce. But before companies proceed with planning and budgeting for an air pollution control device, there are several questions they need to answer:

At CPI, we are frequently asked about the length of time necessary to build and install an oxidizer. The answer to that question is complicated, depending on a variety of factors such as the client’s procurement process and the complexity of the equipment and location of the site. To help build understanding of the decisions that go into this process, we wanted to take a closer look at a typical industrial process utilizing a standard thermal oxidizer, catalytic oxidizer, or regenerative thermal oxidizer. In our first blog on this topic, we looked at the client buying process. Today, we’ll look at the timeline for oxidizer deliver and installation.

Many pollutants, both natural and synthetic, are gaseous in nature and require specific technology to effectively remove the pollutant from an exhaust or process gas stream.  Gaseous industrial pollutants can include:

In our previous post we discussed what air pollution is and why anyone may need a Regenerative Thermal Oxidizer (RTO).  In this post we explore more details about various RTO designs and describe the operating principles.