Brandon Zielinski, CWI, Enerquip Quality Control Specialist
Enerquip’s Quality Control Specialist, Brandon Zielinski, has earned the highly regarded Certified Welding Inspector (CWI) certification from the American Welding Society (AWS). The rigorous certification process involves extensive online study, hands-on training, and comprehensive exams, covering welding codes, inspection methods, and quality control practices.
The AWS CWI certification is a globally recognized benchmark for welding excellence. It underscores Zielinski’s expertise in safeguarding the integrity and safety of critical components such as pressure vessels and heat exchangers. To qualify, candidates must meet stringent educational and professional experience requirements, and by attaining this certification, Zielinski joins an elite group of welding inspection professionals known for their technical aptitude and dedication to safety.
“Brandon’s CWI certification is a testament to his commitment to professional growth, quality, and safety,” said Jeff Dums, Quality Control Manager. “This milestone not only highlights his personal achievement but also reflects Enerquip’s culture of continuous improvement. We are proud of his accomplishment and look forward to his ongoing contributions to our success.”
Zielinski’s journey with Enerquip began in 2005 after earning his welding degree from Northcentral Technical College. Since then, he has honed his skills across a range of roles, including welding, assembly, and shipping/receiving. His passion for quality improvement led him to the quality department in 2021, where he has become an essential member of the team. He now joins fellow Quality Control Managers Jeff Dums and Kenny Devilbiss in holding the prestigious CWI certification.
For more information on Enerquip’s commitment to quality, click here.
Enerquip has donated $3,000 to the Medford VFW Post 5729’s building fund to support the construction of a new clubhouse. This donation reflects Enerquip’s dedication to enriching the communities it proudly calls home.
The new facility will serve as a hub for veterans to connect, support one another, and host community events. Fundraising for the project began in December 2023 and, as of December 2024, is approaching the 50% mark. This progress is the result of collective efforts from local businesses, organizations, youth groups, the American Legion, VFW, and VFW Auxiliary.
Jeff Hein, a fundraising campaign organizer, expressed gratitude for Enerquip’s support. “Enerquip’s donation brings us one step closer to our goal of breaking ground this spring and opening the doors by Veterans Day 2025,” he said.
Enerquip’s impact is further amplified by a matching grant from the Fulcrum Foundation, which doubles all donations made between October 1, 2024, and May 17, 2025, up to $400,000. This grant increases the value of Enerquip’s contribution to $6,000, accelerating the project’s progress.
“We are proud to partner with the VFW and support the incredible work they are doing for our veterans,” said Jeannie Deml, Enerquip’s President & CEO. “It’s an honor to help fund a project that will provide a gathering space for veterans to connect, share stories, and continue serving our community.”
Enerquip invites the community to join in supporting this vital initiative. For information on how to donate or get involved in the Medford VFW Post 5729’s new building project, call (715) 965-2331.
Photo: Enerquip team members present a $3,000 donation to VFW Post 5729 in Medford, WI, supporting their new clubhouse. Pictured from left: Cam Diedrich, Enerquip Design Engineering Manager; Linda Olejnichak, Enerquip Design Engineer; Shelly Matthias, Enerquip Admin Specialist; Josh Mueller, Enerquip Welder and U.S. Marine Corps Veteran; Lisa Holm, Enerquip Sales Engineer; Jeannie Deml, Enerquip President & CEO; Tim Strebig, Enerquip Operations & Facilities Manager; Nick Lemke, VFW 5729 Commander; Tom Steen, Enerquip Process & Analytics Manager; Jeff Hein, VFW 5729 Fundraising Campaign Organizer.
Enerquip is excited to announce a donation of $50,000 to support the development of a new youth center at The REC Center, a nonprofit organization serving the Medford community. This contribution follows a successful year for the company and is part of Enerquip’s ongoing commitment to giving back to the community.
The REC Center offers a range of services for area residents, including:
– 24-hour fitness gym
– Pickleball court
– Fitness classes
– Indoor walking track
– Senior wellness programs
– Youth physical and mental health services
The new youth center will offer a safe and supportive environment for local youth, providing them access to programs and resources they need to flourish beyond school and home.
“At Enerquip, we believe in the power of community and the impact this donation will have on our youth and their families,” said Jeannie Deml, President & CEO of Enerquip. “As community needs continue to grow, we are proud that this contribution will help create a vital haven for kids in Medford. The new youth center will offer children opportunities to build skills and access the support they need to succeed.”
“We are deeply grateful for Enerquip’s generous support,” said Jen Meyer, President of the REC Center. “This donation will be instrumental in turning our vision for a new youth center into reality. Our youth navigate many demands, and this new space will offer them a sanctuary for wellness, personal growth, and a strong sense of community.”
This investment underscores Enerquip’s belief that business success should benefit not only the company but also the families and neighbors who make Medford such a special place. By contributing to the growth and development of the REC Center, Enerquip is making a lasting impact on the future of the community.
Pictured from left: Lindsey Mayer, Enerquip Marketing & Communications Manager; Molly Knoll, REC Center Board Secretary; Jake Brehm, REC Center Board Treasurer; Katie Brahmer, Enerquip Benefits Specialist; Butch Wiegel, REC Center Board Director; Jeannie Deml, Enerquip President & CEO; Candice Grunseth, REC Center Board Director; Jen Meyer, REC Center Board President; Adam Rodman, REC Center Founder.
Keeping operations in your plant running smoothly is a top priority for every facility manager. Achieving this goal requires consistent and thorough thermal fluid heater maintenance.
Regular inspections and timely servicing of your machinery are essential to keeping your equipment in optimal condition. But what does that entail?
Here are a few key steps to include in your maintenance routine if your industrial heating system features a thermal fluid heater.
Yearly Inspection
At least once a year, you should have your thermal fluid heater inspected by a professional. Hire Enerquip’s burner specialists to visit and thoroughly inspect the system and tune the burner. We’ll ensure everything is running at peak efficiency.
Insulation Check
Efficient thermal fluid heaters must be well insulated to operate effectively. Your heater’s insulation should be checked regularly to ensure it is still in place and in good condition.
Piping Check
Thermal fluid systems are typically composed of a significant amount of piping. Your system’s pipes should be regularly inspected for weak spots, leaks or any other flaws that might indicate replacement or repair is necessary.
Routine Visual Inspections
Visually inspecting your facility’s thermal fluid heating system on a regular basis is an easy way you can keep an eye out for any issues that might crop up. Familiarizing yourself with the heater’s features and performing a routine visual inspection of the exterior of the heater, keeping an eye out for hot spots, can help you identify potential problems and address them before they require large scale repair.
When Problems Arise Despite Routine Maintenance
No matter who manufactures your thermal fluid heater, the principles of routine maintenance remain largely the same. However, differences between heaters and manufacturers become more apparent when repairs or servicing are required.
Here are a few key things to remember when you’re faced with the task of repairing or servicing industrial heating equipment in your plant or facility.
Helical vs. Serpentine Coil Repairs
Repairs for helical coil heaters are typically more complex and costly than those for serpentine coil heaters. Helical coils often need complete replacement, resulting in weeks of downtime for manufacturing, shipping, and installation. In contrast, serpentine coils can often be repaired in place, reducing downtime and costs. Check out our more in-depth look at the differences in serpentine coil heater repairs and helical coil repairs here.
The Bottom Line: Invest in Low-Maintenance Industrial Heating Systems
If you’re considering a new thermal fluid heating system, Enerquip offers innovative solutions designed to minimize maintenance needs. Our industrial heaters feature a durable serpentine coil design that delivers efficiency and longevity, making them ideal for various industries.
Enerquip is dedicated to manufacturing high-quality systems that require minimal maintenance and repair, ensuring long-lasting performance and reliability.
Ready to explore how an Enerquip industrial heating system can benefit your business? Call us at (833) 516-6888 or contact us to start the conversation. We’d love to help you find the right solution for your needs.
The basic operation of a shell and tube heat exchanger is simple: one fluid flows through the tubes while another flows through the surrounding shell. With all sides of the tubes in contact with the shell liquid, heat transfer is highly efficient. However, even with such a naturally effective process, there are still ways to optimize it for greater efficiency.
As liquid flows through the tubes, some areas experience better contact with the heat transfer surface compared to others. The outermost liquid layers in contact with the tube walls benefit more from the heat transfer medium in the shell, while the liquid at the core of the flow is less effectively mixed with the wall, which slightly hinders heat transfer efficiency.
While liquids do mix somewhat during their journey through the tube, the length of the tube limits the mixing effectiveness. A longer tube could improve this mixing but would often be impractical for manufacturers with space constraints.
Fortunately, there are design improvements and retrofits that can be made to shell and tube exchangers to enhance heat transfer even further.
Static Mixers
A static mixer (also called a motionless mixer) is one effective solution. These devices are placed inside the tubes and alter the fluid flow, improving heat transfer. Static mixers are helpful for several functions, including:
Promoting chemical reactions
Layering or dividing fluids
Changing flow speed
Typically, a static mixer consists of long metal rods and several half-circle discs that agitate the fluid. These mixers are designed to match the diameter of the tube they’re inserted into. The number of blades in the mixer depends on the desired effect and the specific process requirements. More blades lead to greater mixing but require more pressure and energy to function effectively.
A key consideration when using static mixers is the pressure drop caused by their presence. This can influence the selection of the most suitable mixer design for a given process.
Twisted Tape Turbulators
Another useful tool for improving heat transfer is the twisted tape turbulator. Unlike a static mixer, which features rods and discs, a twisted tape turbulator is a flat metal sheet twisted into a helical shape. These turbulators are thin, minimizing additional friction within the tube.
Though they don’t spin like static mixers, the helical shape of the twisted tape encourages the liquid to move in a way that improves mixing and ensures more liquid comes into contact with the tube walls. This can significantly enhance heat transfer efficiency.
The Benefits of Enhanced Efficiency
Maximizing the efficiency of a shell and tube heat exchanger is essential for improving product quality, extending equipment lifespan, and reducing energy consumption. Tools like twisted tape turbulators and static mixers not only boost heat transfer but also help optimize space by allowing for more compact designs.
Each process is unique, but regardless of the application, improving heat transfer efficiency is a key factor in achieving better performance, cost savings, and longer-lasting equipment.
If you’re looking to maximize the potential of your heat exchanger, reach out to the experts at Enerquip for guidance and solutions tailored to your needs.
At Enerquip, we bring decades of expertise in designing, manufacturing, and servicing top-quality industrial heating equipment. Over the years, we’ve developed custom solutions for industrial heating challenges, replacing outdated and inefficient systems with innovative alternatives. In doing so, we’ve gained valuable insights that we share with our clients to help them optimize their operations.
One critical lesson we’ve observed, often learned the hard way by facility managers, is the importance of investing in high-grade heat transfer fluid.
Why High-Grade Heat Transfer Fluid Matters
High-grade heat transfer fluid costs more upfront than its lower-grade counterparts, making some managers hesitant to invest. However, the benefits far outweigh the initial cost, and the decision to prioritize quality can transform your facility’s operations.
Here’s why choosing high-grade thermal fluid is a smart investment:
Improved Heat Transfer Coefficient: High-grade fluids enhance the heat transfer coefficient in your system, allowing for more efficient energy use and better overall performance.
Higher Operating Temperatures: Premium thermal fluids can withstand higher temperatures without breaking down, enabling your heating equipment to perform at its best.
Enhanced Equipment Performance: Since most industrial heating systems operate more efficiently at elevated temperatures, high-grade fluids unlock optimal performance.
Longer Fluid Lifespan: While low-grade fluids might last just three years, high-grade options can endure 7–10 years, reducing replacement frequency and lowering long-term costs.
The Risks of Low-Grade Heat Transfer Fluid
If you opt for lower-grade fluids, you might save money upfront but will likely encounter these costly challenges:
Clogged Systems: Low-grade fluids are prone to depositing solids and minerals, which can clog your heating systems and disrupt operations.
Frequent Replacements: Inferior fluids degrade faster, requiring replacement every few years and increasing downtime.
Facility Downtime: Degraded fluid can cause clogs and damage, necessitating time-intensive repairs and cleaning, leaving your facility idle for weeks.
Lost Profits: Downtime due to fluid issues directly impacts your bottom line. Every moment of lost productivity is money your facility won’t recover.
The Bottom Line: Quality Pays Off
Investing in high-grade heat transfer fluid is a decision that pays dividends in the long run. It keeps your equipment running smoothly, minimizes downtime, and boosts your facility’s productivity.
Don’t learn this lesson the hard way—take the proactive step of upgrading your thermal fluid today.
Struggling with Heat Transfer Fluid Performance?
Already using high-grade fluid but experiencing issues? Here’s how to diagnose and solve common problems:
Managing Pressure Drop in Shell and Tube Heat Exchanger Design
When designing a shell and tube heat exchanger, one of the most critical considerations is pressure drop. Each heat exchanger has a maximum allowable pressure drop, which is influenced by several factors, including the specific application, the type of fluid, and operating conditions.
The goal of the designer is to approach—but not exceed—the maximum allowable pressure drop. Exceeding this threshold can lead to operational inefficiencies and even equipment damage, as excessive pressure can disrupt flow rates and reduce performance. On the other hand, a pressure drop significantly below the maximum limit may indicate suboptimal fluid velocity, which could also impact heat transfer efficiency.
Typically, pressure drop problems arise when the flow rate is too high, resulting in excessive pressure. In such cases, engineers need to implement effective strategies to control pressure while maintaining process efficiency.
There are several approaches to reduce shell-side pressure drop, all of which are tied to key components in shell and tube heat exchanger design: the shell, the tubes, and the baffles.
Limiting Pressure Drop: Shell Design
The shell is a primary factor in controlling pressure drop. The most commonly used shell design is the E-type shell, which features a single inlet and outlet valve and allows the shell-side fluid to make a single pass. While the E-type shell is widely used, it can sometimes result in a pressure drop that exceeds the allowable limit. In these cases, designers may consider alternative shell types, such as the J-type shell, which incorporates two outlet valves to split the flow and reduce pressure drop.
In some configurations, the J-type shell may be modified to include one outlet valve and two inlet valves, sometimes referred to as the I-type shell. Though less common, this design can also help manage pressure drop by allowing for more balanced flow.
For situations where flow splitting isn’t sufficient to control pressure drop, designers might opt for the X-type shell. Like the E-type, the X-type shell has a single inlet and outlet valve. However, the valves are positioned directly opposite each other, which improves flow distribution and can help reduce pressure drop. X-type shells are typically used in shell-side condensers and gas coolers.
If the shell style must remain unchanged but pressure drop still needs to be controlled, increasing the shell diameter can be an effective strategy. A larger diameter reduces flow velocity by shortening the length of the tubes, which can lower the pressure drop. However, this comes with trade-offs, including increased material costs due to the thicker shell wall and a higher tube count. Additionally, shorter tubes can lower tube-side velocity, potentially reducing heat transfer efficiency.
Limiting Pressure Drop: Tube Configurations
The arrangement of tubes also plays a significant role in managing shell-side pressure drop. For example, tubes arranged in a square pattern can reduce pressure drop and facilitate easier tube cleaning. However, a square arrangement tends to accommodate fewer tubes, which can limit heat transfer capacity.
To balance this, designers may opt for a rotated square (or diamond) tube pattern, which can improve heat transfer by increasing flow turbulence, though it may still lead to a higher pressure drop in some cases.
Tube pitch—the distance between adjacent tubes—also impacts pressure drop. A tighter tube pitch increases the number of tubes within the shell, maximizing heat transfer but also increasing shell-side pressure drop. Conversely, increasing the tube pitch can reduce pressure drop by allowing the fluid to flow more slowly, which can be particularly effective when combined with an X-type shell.
Limiting Pressure Drop: Baffle Design
Baffles, the metal plates that direct the flow of shell-side fluid, are another critical element in pressure drop management. The size, shape, and placement of baffles influence the flow pattern, velocity, and ultimately, the pressure drop.
The most common baffle design is the single segmental baffle, which is nearly a full circle with one-third of the circumference cut away to allow fluid to flow around it. This pattern repeats along the length of the shell. While effective, the single segmental baffle can result in higher-than-desirable pressure drops, especially at high flow rates.
To mitigate this, engineers may opt for a double segmental baffle, where the cutout is centered rather than positioned at the sides. This design divides the flow into two separate streams, helping to lower pressure drop by reducing the flow velocity while still maintaining effective fluid circulation.
Baffles arranged along the tube bundle help direct the flow of shell side fluid.
Limiting Pressure Drop: Baffle Spacing and Cut
The spacing between baffles can be adjusted to control pressure drop. Increasing the gap between baffles allows for greater cross-flow, which reduces the pressure drop. However, there are design limits—baffles must be spaced far enough apart to prevent tube vibration or damage, as they also serve as support for the tube bundle.
Baffle cut, or the percentage of the shell diameter removed from each baffle, also plays a role. A larger baffle cut (i.e., a larger opening) reduces flow resistance, lowering the pressure drop. However, this reduces baffle support, which can compromise tube stability and heat exchanger performance. Designers must strike a balance between reducing pressure drop and ensuring adequate tube support.
Another baffle design option to reduce pressure drop is the no-tubes-in-window design. In this configuration, the baffles do not interact with the tubes, allowing for wider spacing between baffles. While this reduces pressure drop, it limits the space available for tubes, thus reducing heat transfer capacity.
Finding the Optimal Solution
Reducing pressure drop in a shell and tube heat exchanger requires a careful balance of design factors, and there’s no one-size-fits-all solution. Each design decision—from shell type to tube arrangement to baffle placement—impacts pressure drop, flow rates, and heat transfer efficiency. Experienced engineers understand how to navigate these trade-offs to meet the specific needs of your operation.
At Enerquip, we specialize in designing and manufacturing shell and tube heat exchangers that optimize performance, including managing pressure drop. Our team can work with you to create a solution tailored to your requirements. Ready to discuss your project? Request a quote today!
When selecting a shell and tube heat exchanger, understanding the strengths and limitations of different alloy options is key. Every application has unique demands—whether it’s resistance to corrosion, high temperatures, or pressure tolerance. Familiarizing yourself with these characteristics can help ensure you select an alloy that will deliver the performance your operation requires.
Alloy Composition and Properties
Alloys are created by combining specific metals to form a new material with unique properties. For example, nickel is a common choice to boost strength and hardenability while preserving ductility. Nickel-based alloys are highly resistant to stress corrosion cracking, making them ideal for challenging industrial environments.
Among the popular options for durability and corrosion resistance is Hastelloy C-276, composed of:
Nickel for overall strength
Molybdenum to reduce brittleness
Chromium for improved ductility and wear resistance
Tungsten to enhance corrosion resistance
The regulatory landscape emphasizes materials that meet stringent industry standards, such as those outlined by the International Organization for Standardization (ISO). For instance, ISO 15156 provides guidance specific to the petroleum and natural gas industries, outlining suitable materials for corrosive environments rich in hydrogen sulfide. Nickel-based alloys, including Hastelloy C-276, are recommended for these high-risk conditions due to their robust chemical composition and manufacturing process.
How Hastelloy C-276 is Made
Solution annealing and cold-working are two key methods used to manufacture alloys. Solution annealing involves heating the metal to a set temperature to enhance workability and reduce hardness. Cold working, in contrast, strengthens the alloy by manipulating it below its recrystallization point, although this can increase hardness, making periodic annealing beneficial for achieving optimal characteristics in tubular structures.
Resisting Hydrogen Sulfide Corrosion
Hydrogen sulfide (H₂S), common in natural gas and crude oil extraction, is a highly corrosive agent that poses safety risks if materials fail. ISO 15156 suggests that nickel alloys such as Hastelloy 825, 625, and C-276 are effective for high-hydrogen sulfide environments. Among these, Hastelloy C-276 is particularly well-suited for high-pressure H₂S exposure.
Hastelloy C-276 also offers resilience against a variety of acids and corrosive compounds, including hydrochloric acid, sulfuric acid, acid chlorides, phosphoric acid, acetic and formic acids, hypochlorite, wet chlorine gas, and acetic anhydride.
While it doesn’t perform well against nitric acid, its resistance to other corrosive agents makes it a popular corrosion-resistant material.
High-Temperature Tolerance
Nickel-based alloys like Hastelloy C-276 have impressive heat resistance, making them suitable for operations with fluctuating or extreme temperatures. This alloy remains stable at temperatures as high as 2,500°F, offering:
Oxidation resistance at 2,000°F
Corrosion and cracking resistance up to 1,900°F
Load-bearing capacity at 1,600°F
Thermal conductivity of 11 Btu/ft•h•°F at 1,000°F
Finding the Right Fit for Your Heat Exchanger
Choosing the best alloy for your shell and tube heat exchanger means evaluating environmental factors and operational requirements. In many cases, Hastelloy C-276 stands out as a durable and highly corrosion-resistant option, ideal for harsh environments. However, consulting with an experienced metallurgist is crucial for making an informed decision.
If you’re considering a nickel-based alloy for its durability and resistance, Enerquip’s engineers bring unique expertise in integrating Hastelloy C-276 into custom process equipment. Contact us for guidance on maximizing efficiency and lifespan in your next heat exchanger investment.
We all know energy efficiency is important. From high-efficiency light bulbs and heating systems to fuel-efficient cars, efforts to increase efficiency are all around us.
But if you’re a plant manager or facility owner, you may be overlooking one major source of inefficiency: the industrial heating equipment powering your facility. Relying on outdated equipment might seem cost-effective in the short term, but keeping old systems can cost your plant a significant amount over time in both money and environmental impact.
Here’s why investing in modern, efficient industrial heating equipment should be a top priority for your facility.
Lower Costs, Higher Efficiency: The Financial Case for Upgrading
Switching to a high-efficiency industrial heating system is more than just an investment—it’s a way to save money year over year. Here are a few reasons upgrading makes financial sense:
Decreased Energy Costs: New, high-efficiency heating systems use significantly less energy than older models, which means lower utility bills.
Lower Operating Costs: Aside from saving energy, new systems generally cost much less to operate than the older equipment found in many plants and facilities.
Fewer Repairs: Efficient systems are built to last, often requiring fewer repairs than older equipment. Many plants find that investing in new systems reduces downtime and minimizes disruption.
By upgrading, you’re not just avoiding high operating costs—you’re also ensuring a steady, reliable heat source without the frequent headaches of repairs and maintenance.
Green Gains: How Efficient Heating Systems Benefit the Environment
Industrial facilities can make a big environmental impact by switching to efficient equipment. Here’s how:
Less Energy Consumption: Efficient heating systems use less fuel, meaning your plant reduces its carbon footprint and conserves resources. Since these systems operate on a large scale, even one industrial heating system’s energy efficiency can have a significant impact on resource consumption.
Less Waste: Efficiency doesn’t just mean lower energy use; it also reduces waste. High-efficiency systems create less operational waste and fewer emissions, and they’re built to last, cutting down on the need to replace parts frequently.
Choosing green equipment for your facility is a practical way to contribute to a sustainable future while also benefiting your bottom line.
Invest in Efficient Industrial Heating Equipment
If you’re considering updating your facility’s heating equipment, remember: investing in a highly efficient system can positively impact your facility’s profitability and environmental footprint. It’s a responsible choice that could save your company thousands, all while reducing your impact on the environment.
At Enerquip Thermal Solutions, we specialize in highly efficient, USA-made thermal fluid heating systems. Whether you’re looking for custom plant heating solutions, standard heating systems, or waste heat economizers, our systems are among the most advanced and durable available.
Want to know how much you could save by upgrading? Reach out to our team for a free efficiency assessment! With decades of experience, Enerquip is proud to offer solutions that not only save energy but also support a sustainable future. Contact us today to learn more.
Creating a high-quality product requires more than luck—it demands careful planning and the right tools. Every component, from the raw materials to the equipment used, plays a critical role in ensuring success. It starts with selecting the best materials, building an efficient facility, and utilizing top-tier equipment.
But even the best equipment won’t last forever. Over time, wear and tear take their toll, which makes it essential to monitor and maintain machinery to avoid disruptions in your operation.
Replacing or upgrading equipment, however, isn’t always a simple task. Large, specialized machinery, like shell and tube heat exchangers, can have long lead times. Waiting for essential equipment can cause significant delays, making proactive planning essential. Here are a few strategies to help streamline the process and minimize downtime.
Know When You’ll Need Replacements
You don’t need to be a fortune teller to predict when equipment might need replacing. Keeping track of the age, condition, and expected lifespan of your machinery will give you a solid idea of when to plan for upgrades or replacements. While it’s important to know the average lifespan of your equipment, remember that factors like usage, environment, and build quality can affect performance, so regular inspections are key. The older your equipment, the more frequently you should inspect it to catch signs of wear early.
Develop an Ordering Schedule
Once you have a general idea of when your equipment may need replacing, it’s smart to create a schedule for ordering new parts or machinery. This allows you to budget accordingly and plan ahead, so you can place orders well before equipment failures occur. By staying proactive, you’ll minimize downtime and avoid the costly delays that come with waiting for critical parts to arrive.
Communicating your needs with your equipment supplier is also essential. By keeping them informed, they can provide you with accurate lead times and production schedules, ensuring that you’re never caught off guard.
Plan for the Unexpected
While planning can help avoid many issues, unexpected problems can still arise. Equipment can fail suddenly, and when it does, quick action is necessary to minimize downtime. Having an emergency budget in place and spare parts on hand will help you recover faster. Additionally, working with a reliable equipment manufacturer who can respond quickly in an emergency can make all the difference.
Build Strong Partnerships
In any industry, strong relationships with trusted suppliers are invaluable. Over time, a reliable partner will gain a deep understanding of your specific needs and processes, making collaboration smoother and more efficient. When it comes to ordering specialized equipment like shell and tube heat exchangers, having a dependable partner ensures that you’re well-supported throughout the process.
If you’re unsure of how to plan for future equipment needs or want advice on reducing lead times, the engineers at Enerquip are ready to help. Contact us today to streamline your operations and stay ahead of the curve.
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