Austin Morelock
President & CEO
Austin Morelock’s role at Calvary Industries reflects years of practical experience, family involvement, and gradual advancement within the company. He has worked with the Ohio-based family-owned business for more than 13 years and became CEO and President in 2021. In 2025, he led Calvary Industries through a dividend recapitalization with Mason Wells while continuing to serve in his executive role. Mason Wells is a Midwest-based private equity firm that has raised $2.4 billion in aggregate across five independent buyout funds.
Founded in 1983 by Austin’s father, John Morelock, Jr., Calvary Industries is a chemical manufacturing company that formulates and produces blended process chemicals. Its products include industrial cleaners, conversion coatings, metalworking fluids, and waste treatment chemistries. The company also blends, packages, and processes customer-owned products to match client specifications. Materials are shipped in containers ranging from one gallon to bulk tank trucks, giving the business flexibility in serving customers with different order sizes.
Calvary Industries operates two manufacturing locations. Its headquarters are in Fairfield, Ohio, and its other manufacturing facility is in Pineville, Louisiana. The Company also uses third-party distribution locations in California and Mexico. Calvary Industries has about 150 non-union employees. Its products and services reach a wide range of industries, including appliance, architectural, automotive, contract manufacturing, food and beverage, general industry, heavy equipment, HVAC, metal fabrication, metalworking, military defense, paper and pulp, and pretreatment.
Austin began his professional career after graduating from university. He first worked for Groupon in Chicago before joining Calvary Industries as an outside chemical sales representative in Dallas, Texas. He worked there for a couple of years, gaining experience in customer-facing chemical sales. He later returned to Cincinnati, where he was born and raised, and became Director of Sales and Marketing. Over time, his responsibilities expanded, and he moved into the CEO and President roles.
In 2025, Calvary Industries formed a partnership with Mason Wells. The Morelock family and Calvary senior management team invested alongside the private equity firm. Austin said the company had spent a lot of time getting to know Mason Wells and was impressed by the firm’s professionals, especially its cultural fit with Calvary. He also described this stage as an inflection point in the company’s history. He said Calvary was excited to bring in a firm that invests in people, partners with management, and has a deep network of industry resources to support growth.
Mason Wells viewed Calvary Industries as a strong strategic fit because of its established market position, commitment to developing technical solutions, and consistent record of profitable growth. The partnership was intended to support and accelerate Calvary’s continued expansion while preserving the high level of service and collaborative approach that have defined the company’s work.
In 2019, Austin was named to the “Products Finishing 40 Under 40.” This annual recognition program honors emerging leaders under 40 who are making a meaningful impact in the surface finishing and manufacturing industries. It recognizes professionals who demonstrate leadership, innovation, and a commitment to advancing their field through their contributions and achievements.
Austin Morelock attended Emory University in Atlanta, Georgia, and graduated in 2011. While at school, he took part in the Business and Investment Clubs. He also attended Cincinnati Country Day School, a coeducational, college-preparatory private school in Indian Hill, Ohio. The school serves students from 18 months through 18 years and has focused for 100 years on preparing students for success in college and life.
Austin also serves as Vice President of the Juniper Tree Foundation, the Morelock family foundation. The Cincinnati-based 501(c)(3) private foundation focuses on charitable, educational, and scientific endeavors. It operates on an invitation-only basis and, as of 2024, has paid $415.1K in grants to 105 grantees.
The Foundation also partners with Back2Back Ministries and focuses on orphan care worldwide. Back2Back Ministries provides long-term, holistic care to vulnerable children and families worldwide by addressing physical, emotional, educational, and social needs to help create lasting, sustainable change.
Austin Morelock has three brothers, Jay, Tyler, and Josh. He married Shelbie Milam three years ago. Shelbie also grew up in Cincinnati, attended Miami University (OH), and currently works as a Senior UX Designer at Shipt, Inc., an American delivery service owned by Target Corporation.
Austin and Shelbie have a son, Miles, born in May 2024, and are expecting their second child, a daughter, in August. Alongside his professional responsibilities, he remains involved in family life, charitable giving, and personal interests, including travel, hiking, and sporting events.
Know More: LinkedIn
THE BLOG
Austin Morelock: Innovative Metal Protection Solutions for Lasting Durability
Published on: 10-23-2026
Metal plays an essential role in construction, manufacturing, transportation, and industrial infrastructure. However, exposure to moisture, oxygen, chemicals, and changing environmental conditions can gradually weaken metal surfaces. Corrosion reduces structural strength, increases maintenance costs, and shortens equipment lifespan. As a result, industries increasingly rely on innovative metal protection solutions to improve durability and maintain long-term performance. Modern protective technologies help prevent surface damage while supporting safer, more efficient operations across applications, as defined by Austin Morelock.
One of the most effective approaches to preserving metal is using advanced corrosion inhibitors. These specialized chemical compounds slow down reactions that cause metal deterioration. Unlike traditional treatments, newer inhibitor formulations can provide improved protection under challenging environmental conditions. Furthermore, researchers continue developing environmentally responsible alternatives that reduce hazardous chemical use. These advancements help industries protect valuable equipment, support sustainability goals, and improve operational reliability.
Protective coatings also significantly extend the lifespan of metal. Modern coating technologies create barriers that prevent moisture, oxygen, and corrosive substances from reaching vulnerable surfaces. For example, epoxy coatings, polyurethane finishes, and zinc-rich primers offer different levels of protection depending on operating conditions. Additionally, nanotechnology-based coatings are attracting attention because they can improve barrier performance and surface resistance. Choosing the right coating systems helps businesses reduce repair costs and maintain consistent equipment performance.
Another important advancement involves smart corrosion monitoring systems. These technologies use sensors and data analysis to identify early signs of metal degradation. As a result, maintenance teams can detect potential problems before they cause significant structural damage. Predictive maintenance strategies also allow organizations to schedule inspections and repairs more efficiently. By combining monitoring tools with effective protective treatments, industries can improve asset management and minimize unexpected operational disruptions.
Sustainable metal protection has become increasingly important as industries seek environmentally responsible solutions. Water-based coatings, lower-toxicity inhibitors, and improved surface-treatment methods can reduce environmental impacts. Ongoing research also focuses on developing durable materials that require less maintenance. These improvements support resource conservation while maintaining essential performance standards.
Ultimately, innovative metal protection solutions offer practical benefits for industries seeking lasting durability. By combining advanced inhibitors, protective coatings, intelligent monitoring, and sustainable technologies, these solutions can significantly improve corrosion resistance. As research advances, these approaches will continue to help businesses extend equipment service life, reduce maintenance costs, and protect critical metal infrastructure.
Austin Morelock: How Advanced Machining Fluids Create Healthier Workplaces
Published on: 10-16-2026
Modern manufacturing environments depend on precision, efficiency, and consistent performance. However, protecting employee health is just as important as maintaining productive operations. Metalworking fluids play an essential role in machining processes by reducing friction, controlling temperatures, and improving cutting performance. As workplace safety expectations evolve, manufacturers are increasingly exploring advanced machining fluids designed to minimize health risks while supporting reliable production, as defined by Austin Morelock.
Traditional metalworking fluids can generate airborne mist during high-speed machining operations. When workers inhale these particles or experience prolonged skin contact, they may develop respiratory irritation, skin conditions, or other occupational health concerns. Therefore, selecting appropriate fluid formulations and implementing effective exposure controls are essential steps toward creating safer industrial environments.
Modern machining fluids increasingly incorporate technologies that help reduce mist formation and improve workplace conditions. Low-mist formulations are engineered to limit airborne droplet release during cutting, grinding, and other metalworking activities. By reducing unnecessary fluid dispersion, these products can help manufacturers manage potential exposure while maintaining effective cooling and lubrication.
Additionally, advanced fluid formulations may offer improved stability, corrosion protection, and resistance to microbial growth. These characteristics are valuable because poorly maintained metalworking fluids can become contaminated with bacteria and other microorganisms. Regular fluid monitoring, proper concentration management, and routine maintenance remain necessary to support safe operating conditions.
Another key benefit is improved employee comfort and productivity. Cleaner working environments can help reduce unpleasant odors, excessive fluid residue, and unnecessary contact with potentially irritating substances. When businesses prioritize occupational health, employees may feel more confident in their workplace conditions and engage more strongly with established safety practices.
However, healthier machining operations require more than improved fluid chemistry. Manufacturers must also invest in effective ventilation systems, mist collection equipment, employee training, and appropriate personal protective equipment. Combining these measures with carefully selected metalworking fluids creates a more comprehensive approach to exposure management.
Furthermore, adopting modern fluid technologies can support long-term operational efficiency. Improved lubrication and consistent cooling may extend tool life, enhance surface quality, and reduce unnecessary maintenance. These advantages demonstrate that employee protection and manufacturing performance can complement each other.
Ultimately, advanced machining fluids represent an important component of responsible industrial operations. By choosing suitable formulations, maintaining fluid quality, and following established safety procedures, manufacturers can create healthier shop floors while supporting precision, productivity, and sustainable workplace practices.
Austin Morelock: Advanced Cooling Technologies for Precision in High-Speed Machining
Published on: 10-10-2026
Austin Morelock noted that high-speed machining has transformed modern manufacturing by enabling companies to produce complex components faster, with greater precision and efficiency. However, faster cutting speeds generate significant heat, challenging tool durability, surface quality, and dimensional accuracy. As manufacturers push machining performance, advanced cooling technologies have become essential to maintain reliable production. Innovative coolant systems now help control temperatures, reduce friction, and improve machining efficiency across demanding industrial applications.
Heat management is critical in high-speed machining because excessive temperatures can damage cutting tools and alter material properties. At elevated speeds, friction between the cutting edge and workpiece generates intense heat. Without effective cooling, this thermal buildup can accelerate tool wear, cause dimensional variations, and reduce surface finish quality. As a result, manufacturers increasingly rely on specialized metalworking fluids and advanced coolant delivery systems to maintain stable machining conditions.
One important innovation involves high-pressure coolant delivery. Unlike conventional flood cooling, high-pressure systems direct coolant precisely toward the cutting zone. This targeted approach improves coolant access, supports chip evacuation, and helps reduce localized heat buildup. Controlled coolant delivery can also improve cutting performance when machining difficult materials such as titanium alloys, stainless steel, and heat-resistant superalloys. These benefits make high-pressure cooling particularly valuable in aerospace, automotive, and precision engineering applications.
Another developing approach involves minimum quantity lubrication, commonly known as MQL. This technology delivers a small amount of lubricant through compressed air, reducing fluid consumption compared with traditional flood cooling. Although MQL does not provide the same cooling capacity as water-based systems, it can effectively lubricate suitable machining operations. Additionally, reduced fluid use may simplify cleaning procedures and lower certain waste management costs.
Cryogenic cooling represents another promising advancement in thermal management. This technique uses extremely cold substances, such as liquid nitrogen or carbon dioxide, to reduce temperatures near the cutting zone. Cryogenic systems can help control thermal damage and improve tool performance in selected machining applications. However, manufacturers must carefully evaluate equipment requirements, operating costs, and material compatibility before adopting these solutions.
Modern coolant formulations also improve thermal management. Advanced synthetic and semi-synthetic metalworking fluids combine cooling performance with lubrication, corrosion protection, and formulation stability. Specialized additives can also improve fluid behavior under demanding machining conditions. Choosing the right formulation lets manufacturers balance cooling efficiency with equipment protection and operational needs.
Austin Morelock: Smarter Metalworking Starts With Better Fluid Technology
Published on: 10-05-2026
Metalworking fluids have played an important role in manufacturing for generations. They help control heat, reduce friction, protect tools, and improve the quality of finished parts. However, modern manufacturing places far greater demands on these fluids than traditional machining once did. Faster production speeds, advanced alloys, automated equipment, tighter tolerances, and sustainability goals have pushed manufacturers to seek more capable solutions. As a result, metalworking fluids have evolved from basic cooling and lubrication products into high-performance formulations designed for smart manufacturing environments, as defined by Austin Morelock.
Early metalworking operations often relied on simple oils to lubricate cutting tools and workpieces. These oils reduced friction, but they had limitations at higher speeds. As manufacturing technology advanced, water-soluble fluids became more common because they provided better cooling. Manufacturers eventually developed emulsions, semi-synthetic fluids, and fully synthetic formulations to meet different machining requirements.
Today, manufacturers expect much more from a metalworking fluid. A modern formulation must manage heat effectively while maintaining strong lubrication between the cutting tool and material. This balance can help reduce tool wear, improve surface quality, and support consistent machining performance. In demanding operations, even small improvements in lubrication and cooling can boost productivity and reduce interruptions.
Advanced materials have also influenced fluid development. Manufacturers now regularly machine stainless steels, aluminum alloys, titanium, composites, and other materials that can present unique challenges. A fluid that performs well with one material may not deliver the same results with another. As a result, modern formulations often target specific applications, materials, and machining conditions.
Smart manufacturing has created another major shift. Automated production lines and computer-controlled machines can operate for long periods with limited human intervention. In these environments, fluid stability becomes increasingly important. Excessive foaming, contamination, residue, or rapid fluid degradation can interfere with production. High-performance metalworking fluids aim to remain stable under demanding operating conditions and support predictable manufacturing processes.
Fluid management is also becoming more data-driven. Manufacturers can monitor factors such as concentration, temperature, fluid condition, and machine performance. This information helps operators make informed maintenance decisions instead of relying only on fixed schedules. When manufacturers combine advanced fluids with effective monitoring practices, they can identify potential problems earlier and maintain more consistent operating conditions.
