Innovation: Implementing Cutting-Edge Technology Without Getting Cut

 
In our daily lives, we have become accustomed to the frequent introduction of new technology. Every year, cell phone companies roll out their newest offerings and people line up to replace a perfectly good phone with something new and enticing. In contrast to that, the rate at which new technology percolates into the industrial space is much slower and is rarely met with the same excitement.
 
When the Clean Air Act of 1970 established the first standards for national ambient air quality in the U.S., it set in motion regulations that ensured new technology would continually be required to reduce the emissions from fossil fuel combustion. After almost 50 years of these regulations, we have seen the evolution of combustion technologies which have dramatically reduced the formation of pollutants. At the same time, we have also seen the pain and suffering that implementing these new technologies has caused the end users of this equipment. Sometimes just mentioning the phrase “new Low NOx burner” in a facility will cause experienced operations personnel to start gathering their torches and pitchforks.
 
Equipment suppliers hold a portion of the blame for industries distrust of new technology, as companies are very good at touting all the benefits of their newest lower emission product, but not so great at discussing the trade-offs that inherently come with its implementation. Making users find out these limitations the hard way, after a piece of equipment is installed and running, has created an atmosphere of distrust. A highly competitive landscape exacerbates this problem, as equipment vendors feel compelled to try to outsell their competition. Honestly discussing your products limitations while your competition is claiming they have none, can quickly lose you an order. Taken to the extreme, this can devolve into a game of liars’ poker where there is no real winner and the end user is always the biggest loser.
 
An additional factor that has complicated the introduction of new technology into facilities has to do with the resources that are available in those facilities today. The technology that has been deployed to help modernize and automate facilities has reduced the manpower required to run most plants. The graph from the U.S. Department of Labor, Bureau of Labor Statistics shows that for approximately 50 years increases in productivity were closely tied to increases in personnel employed. Starting around the year 2000, we began to see a significant deviation from this trend. While technology has allowed us to do more with less people, there are things that it is not well-equipped to do. Being able to anticipate, experiment and innovate is something that requires the knowledge, experience and creativity that people bring. As the workforce has become constrained, it has resulted in the loss of the resources and expertise to evaluate and implement new technologies effectively.
With continually tightening regulations and our desire for constant progress, we will always need more advanced technology. So, what can we learn from these decades of developments that will make the implementation of new technology less painful?
One area with clear room for improvement is communication. Increased dialog between equipment users and manufacturers is needed to ensure trust exists. It is extremely rare that a reduction in emissions comes without a price. The cost may be in terms of increased operating expense, increased maintenance requirements, a reduction in operational flexibility or some other combination of these or other factors. Manufacturers need to present a balanced view of their products’ strengths and weaknesses and users should be wary of empty promises that cannot be backed with proof from actual operating facilities. Given the years they will have to live with operating this new equipment, users must make sure their process for selecting the right technology to meet all of their facilities’ needs. This requires adequate technical expertise to properly vet the options available and fully understand the implications of each.
 
While few people enjoy being the guinea pig, there are some advantages in being the first to try a new technology. Rather than shun the adoption of new technologies, users can embrace being a collaborative part of its development and implementation. No matter how sophisticated a company’s test facility is, it will never be a substitute for running a piece of equipment inside an operating facility. There will always be critical learning that goes on during the first couple of installations that helps to perfect the technology. Giving manufacturers access to this real-world testing ground in your facility, with the operating flexibility and the time to learn and make tweaks, helps ensure new products perform as needed when regulations require you to implement them. Many manufacturers are willing to deeply discount, or even offer for free, their products and services for this chance to prove out new technology. As an important reference site for their new products, companies also have a vested interest in making sure you continue to be satisfied with the operation of their equipment.
 
While you cannot remove all the risk from trying something new, you can greatly improve the chances for success if you devote the time and resources up front to objectively analyzing all your options. And if your operational situation allows, you may even be able to win big by being a partner in implementing the latest and greatest new technology.
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ERWIN PLATVOET
As CTO of XRG, Erwin is a true innovator, whose career spans more than three decades in heat transfer and combustion industries. Erwin is a graduate of Twente University in the Netherlands with a MS in Chemical Engineering. Erwin has served the industry around the globe in a variety of roles including Research and Development Engineer, Cracking Furnace Specialist, and Director of Engineering, and now CTO. Erwin holds eight patents in fired heat transfer and emissions control technology, has published numerous papers, and co-authored the John Zink Combustion handbook and Industrial Combustion Testing book. Erwin has been an active member of the API 560 and API 535 subcommittees and taken an active role in revising these standards.
BAILEY HENDRIX
Bailey graduated from Oklahoma State University with a Bachelor of Science in Mechanical Engineering. Upon graduation, she joined the private sector as an Applications Engineer in Tulsa, OK at a local combustion company where she managed the sales activities for the process burner refining market. She quickly accelerated her career, becoming the Refining Account Manager responsible for all business development and sales of process burners in North and South America. Her strong leadership skills and interpersonal qualities led her to a position as the Western Hemisphere Sales Director for the process burner business, leading a group of sales engineers in the areas of new equipment, retrofits and burner management systems. Her financial and commercial acumen drives the success of XRG Technologies’ business development.
ALLEN BURRIS
Allen’s background includes 10 years of experience in designing and selling process burners. Allen is a graduate of Oklahoma State University with a BS in Mechanical Engineering and is a licensed professional mechanical engineer in the State of Oklahoma. His knowledge and superior customer focus led him to a career change to process design, custom-engineered fired heater sales, and associated sub-systems for the petrochemical, refining and NGL industries. With more than two decades of experience in the combustion and fired heater industry, Allen has what it takes to overcome challenges associated with complex projects and possesses.
TIM WEBSTER
With over 25 years of experience in the combustion industry, Tim brings a wealth of industry experience and technical expertise to XRG. Tim graduated with a Bachelor of Science in Mechanical Engineering from San Jose State University and received a Master of Engineering from the University of Wisconsin. Tim began his career engineering custom combustion systems for a wide range of applications including boilers, heaters, furnaces, kilns, and incinerators. Tim is a licensed professional mechanical engineer in the states of California, Texas, Louisiana and Oklahoma, has authored numerous articles and papers, and has co-authored several combustion handbooks.
matt martin
As the Lead Scientist at XRG, Matt has over 30 years of experience in the combustion industry. He specializes in CFD of fired equipment, including UOP platforming heaters, burners in process heaters, thermal oxidizers and flares with over 300 simulations of installed, field-proven equipment. Matt received a Bachelor of Science in Computer Science with a minor in Mathematics from the University of Tulsa. He has written numerous publications, is listed as inventor or co-inventor on 27 patents and was awarded the title of Honeywell Fellow in 2011 for technical excellence and leadership.
gina briggs
Gina is a native Oklahoman and attended the University of Tulsa, graduating with a BSBA in Accounting. She is a Certified Public Accountant and Chartered Global Management Accountant. Gina began her career with the Tulsa office of Deloitte Haskins and Sells, providing audit and tax services. Since leaving Deloitte, she has held CFO positions with privately held companies in the manufacturing, construction and distribution industries. In 2013, she began a consulting practice providing contract CFO services to companies, one of which was XRG and joined XRG as CFO in 2019. Gina has always enjoyed working in the small business arena, helping business owners to profitably grow and manage their businesses.