What the Dayton Spires Project Teaches About Modern Sheet Metal

A recent feature in SMACNA’s SMACNews highlights Budde Sheet Metal Works’ commitment to engineering precision, craftsmanship, and collaboration through the story of the Montgomery County Law Enforcement Memorial.

 

Set above the Miami River in Dayton, Ohio, it commemorates 49 law enforcement officers who have fallen in the line of duty, and the first stage of the memorial is set to be complete this fall by installing five 30-foot stainless steel spires.

 

Here are some highlights of the project as featured in SMACNA’S SMACNews.

Early Collaboration Turns Vision Into Reality

This project offers valuable insights not just into architectural metalwork, but into how modern sheet metal fabrication supports complex, design-driven builds.

 

One of the most important themes from the project is early collaboration between stakeholders. Michael Worley, Project Manager for Budde Sheet Metal Works, explains that a local architect engaged Budde after working with them in the past:

“We have done a couple of projects for him in the past, so he came to us with a concept. This was before they completed the funding for this project, probably a year and a half ago.”

Early involvement allowed Budde to move beyond fabrication and into design development, helping translate a conceptual vision into manufacturable geometry.

 

Key Learning:

 

Bringing your fabricator into the design phase early can:

 

  • Improve manufacturability
  • Reduce redesign cycles
  • Accelerate quoting and production

Engineering + Craftsmanship = Complex Geometry

The stainless steel spires are each approximately 30 feet tall and require more than standard fabrication techniques. The team chose to put a weaving geometry in the spires to give the project a 3D look.

 

This “woven” geometry introduced challenges in flat pattern development, assembly sequencing, and structural integrity, but the Budde team leaned on strong communication and prototyping to come up with creative solutions.

 

Key Learning:

 

Complex forms, especially curved or layered geometries, require:

 

  • Advanced CAD development
  • Iterative prototyping
  • Close coordination between design and fabrication

Design Complexity Lives in the Details

One of the most revealing insights from the project is where the real difficulty occurred. Worley described one of the project’s biggest challenges by saying, “The woven details were the biggest issue… significant planning and back-and-forth.”

 

Even when a design looks straightforward, small details, like interwoven elements, can drive the majority of engineering effort.

 

Key Learning:

 

When designing sheet metal parts:

 

  • Seemingly minor features can dominate fabrication complexity
  • Expect iteration when combining aesthetics with structural function
  • Plan for design validation early in the process

Precision Fabrication Meets Advanced Equipment

Budde leveraged high-powered laser cutting to execute the design by using the 4000-watt Trumpf laser to cut the spires. This highlights how modern fabrication technology enables complex architectural features that were previously difficult or impossible.

 

Key Learnings:

 

  • Laser cutting allows for intricate cut patterns and tight tolerances
  • Advanced equipment expands design possibilities, but still requires DFM discipline

What This Project Says About Modern Sheet Metal

This project reinforces a broader industry truth: Custom sheet metal is not just fabrication. It’s engineering-driven problem solving.

 

Custom architectural sheet metal allows for building-specific design and unique structural expression that standard systems cannot match. 

Project Highlights 

If you’re designing complex sheet metal components or architectural elements, this project highlights a few critical lessons:

01

Involve Your Fabricator Early

Design collaboration upfront prevents downstream issues.

02

Expect Iteration on Complex Features

Aesthetic elements often require engineering refinement.

03

Design With Process in Mind

Laser cutting, forming, and assembly all influence feasibility.

04

Don’t Underestimate “Simple” Details

Small features often drive the most complexity.

05

Use the Right Tools and Expertise

Advanced equipment + experienced teams = successful outcomes.

Partnering Early Makes the Difference

Projects like the Dayton spires demonstrate what’s possible when engineering, fabrication, and design work together from the start.

 

At Budde Sheet Metal Works, we support engineers with:

 

  • Design for manufacturability (DFM) input
  • CAD development and fabrication drawings
  • Complex sheet metal forming and assembly
  • Prototype-to-production support

 

If you’re working on a complex or design-driven sheet metal project, our team can help bridge the gap between concept and fabrication.