Component manufacturers are operating in a market with little room for waste. Housing demand is difficult to predict. Material prices shift quickly. Labor is expensive and difficult to find. Customers still expect competitive pricing, dependable schedules, and fast turnaround. Those pressures are outside a component manufacturer’s control. You cannot determine next quarter’s lumber prices or when a builder will release the next project. But every truss contains dozens of smaller decisions you can control.
A different lumber grade, alternative web configuration, or slight adjustment to a connector plate’s angle can change a component’s cost. Each decision may seem small on one truss. Repeated across components and projects moving through a plant, those decisions can become meaningful. Designing a truss that passes code is only the first step. The real goal is finding the specific design that fits your shop’s purchasing strategy, design standards, and production flow.
Passing is the Starting Point
Structural analysis answers an essential question: Does this component satisfy the design requirements? Once the answer is yes, the component can move forward. In a busy design office, that is often where the search ends. Designers have deadlines, jobs waiting in the queue, and production teams depending on them. Manually testing every combination of lumber, webs, and plates is rarely practical.
But a passing design is not necessarily the most economical design. There may be several valid ways to solve the same component. One solution may use a higher lumber grade with fewer webs. Another may use a lower grade with a different web configuration. One may require larger plates square to the joint, while another uses a different plate angle or position. All may satisfy the structural requirements without carrying the same material cost or production impact. Finding those alternatives requires more than checking whether a component passes. It requires exploring the decisions within it and understanding their tradeoffs.
Look Beyond Lumber Size
Lumber size is often the first variable that comes to mind with truss optimization. But meaningful savings can be found elsewhere.
Lumber Grades
The highest available grade is not always necessary. Selecting a different grade can lower material cost while meeting the required performance. But changing one member can affect the rest of the truss. A lower grade may require another adjustment, so its value cannot be measured by looking at that board alone. The right answer also depends on purchasing and inventory. A less expensive grade provides little benefit if the shop does not stock it, cannot source it reliably, or must introduce another SKU for limited use.
Web Configurations
The web pattern is another opportunity. Different configurations can change member counts and lengths, required grades, joint forces, and the plates connecting them. A configuration that uses less lumber may introduce more pieces to cut and assemble. Another may use an additional web but allow lower-cost material elsewhere. The most economical answer depends on whether the shop is prioritizing raw material, production simplicity, cutting efficiency, or some balance of all three.
Plate Placement and Angle
Connector plates offer opportunities that are easy to overlook. A small change in placement or orientation may use a plate more effectively. In some conditions, a slight angle can create a better solution than keeping the plate square to the member. That does not mean every plate should be rotated. Some manufacturers welcome angled plates when they produce a material benefit. Others prefer familiar, standardized placement on the production floor. Both priorities are valid. Optimization isn’t a single calculation; it’s a sequence of connected choices where one change impacts every other part of the component.
The Cheapest Truss is Not the Same for Everyone
Optimization is rarely a straightforward math problem with a single, clear answer. In the real world, the “best” design depends entirely on your specific operation. One manufacturer may want to minimize total material cost. Another may prioritize fewer webs and simpler assembly. A shop with a deep lumber inventory may be comfortable using several grades, while another may prefer to limit the number of grades moving through the plant. Plate availability, purchasing agreements, saw capabilities, labor, and established production practices can all change the value of a design.
Even two plants within the same company may define an optimized component differently. Software shouldn’t dictate what a manufacturer prioritizes. Instead, it should give you direct control over the variables that matter most to your production.
Optimization on Your Terms
This practical perspective is what drives our development of single-component optimization within Paragon D.A.N.
Rather than stopping at the first passing design, D.A.N. is being developed to explore alternative solutions and identify opportunities that would be difficult to evaluate manually. That can include considering different lumber grades, testing web configurations, and examining plate placement and orientation.
Generating options is easy; the real value comes from filtering those choices through your shop’s actual preferences. If your shop wants to avoid certain lumber grades, that preference matters. If you value fewer pieces over the absolute lowest material cost, that matters. If angled plates are acceptable only when they create a meaningful benefit, that matters too.
The designer remains an essential part of the process. D.A.N. is not intended to replace the experience required to understand a component, a customer, or a production environment. It is intended to help designers explore more possibilities, compare the tradeoffs, and make better-informed decisions without manually rebuilding the same truss again and again. Optimization should make expertise more powerful, not remove it from the process.
Small Savings at Production Scale
Not every optimized component will produce a dramatic result. Sometimes the improvement may be a small change in lumber, a different web, or a more efficient plate. The value comes from finding those opportunities consistently.
A modest material improvement repeated across a large job can affect the margin on that project. Repeated across months of production, it can influence the economics of the entire operation. Just as importantly, having more visibility into the available options gives manufacturers a stronger basis for deciding where they are willing to make tradeoffs and where they are not.
In a strong market, small inefficiencies can be easy to overlook. In a difficult market, they deserve attention.
More Control When the Market is Hard
Component manufacturers cannot control every force acting on their businesses. But they should have more control over the decisions inside their components.
That begins with recognizing that there may be more than one right way to design the same truss. The best solution is the one that satisfies the structural requirements while aligning with the materials, capabilities, and priorities of the shop that will build it.
At BCMC 2026, we will be sharing more of our work on Paragon D.A.N. and single-component optimization. We look forward to showing how small design decisions can reveal new opportunities for savings, and how manufacturers can remain in control of what an optimized component means for their operation.
Because the best truss is not simply the one that passes. It is the one that works best for you.