Company Filing History:
Years Active: 1993
Title: Innovator Robert K. Steely and His Contributions to Chlorine Processing
Introduction
Robert K. Steely, based in Louisville, KY, is a notable inventor recognized for his advancements in chemical processing, particularly regarding liquid chlorine. His innovative approach toward the removal of inert gases from liquid chlorine has been significant in enhancing the efficiency and safety of chemical processes.
Latest Patents
Steely holds a patent titled "Process for removal of inert gases from liquid chlorine and system." This invention describes a method and system for treating liquid chlorine by passing it through a specialized molecular sieve. The sieve's design allows for the adsorption of inert gases while permitting the liquid chlorine to flow through unimpeded. Furthermore, the sieve can be regenerated through a heating process, followed by vacuum evacuation and gas purging, ensuring a sustainable and efficient method for maintaining chemical purity.
Career Highlights
Throughout his career, Robert K. Steely has made significant strides in the field, contributing his expertise while working with Olin Corporation. His focus on process innovations has not only enhanced operational processes but also underscored the importance of efficiency in chemical engineering.
Collaborations
Steely has collaborated with key professionals, including Ronald L. Dotson and Harry J. Loftis, further enriching his projects and contributing to the innovative environment at Olin Corporation. Their partnership highlights the collaborative efforts that often drive significant advancements in technology and science.
Conclusion
Robert K. Steely's contributions, particularly through his patent on the removal of inert gases from liquid chlorine, demonstrate his commitment to innovation in chemical processing. His work at Olin Corporation, coupled with the collaboration of esteemed colleagues, underlines the essential role of inventors in advancing industrial processes and ensuring the safety and efficiency of chemical usage.