Patent Attorney and Founder
For most products, the first version just isn’t ready for the market. That’s normal. You can push it out early and treat it like a test run, maybe spend a small amount and see how people respond. But that first impression carries weight. If someone uses your product and it breaks right away, that feedback sticks, and it’s hard to recover from that kind of start.
That’s why I usually caution people against rushing.
A lot of founders feel pressure to launch fast. They want traction. They want sales. They want proof that the idea works. That instinct makes sense, but it can backfire if the product itself isn’t ready to hold up under real use. One bad experience can turn a curious customer into someone who never comes back.
Why Rushing to Market Backfires
3D printing is incredibly useful, but not for the reason most people think. It’s not really about selling right away. It’s about understanding what you’ve made. When you hold a physical version of your idea, things change. You notice what feels off. You see where it might fail. You start asking better questions.
There’s a big difference between something that looks good on a screen and something that works in your hand. On a screen, everything fits. Everything aligns. But once it’s real, tolerances matter. Weight matters. Grip matters. Even small details, like how a corner feels or how a part snaps into place, start to stand out.
That’s the real value, learning before committing serious money.
Because once you move into full production, the stakes get much higher. A basic 3D print might cost around a hundred dollars. Reworking a production mold could cost ten thousand or more. That gap alone is enough reason to slow down and test properly.
It’s not just about cost, either. It’s about time. Fixing a mold can take weeks. Sometimes longer. Meanwhile, your launch gets delayed, or worse, you move forward with a flawed design because you can’t afford to fix it.
Where It All Started
I first got into 3D printing back in 2012 while working in aerospace design. We were using early systems to build test fixtures and tools for assembly. These weren’t final products, they were functional pieces meant to improve how things were built. Even then, it was clear how useful the process could be.
We weren’t trying to make something pretty. We were trying to make something that worked. If a tool shaved even a few seconds off an assembly step, that mattered. Over time, those small gains added up.
That experience stuck with me.
After that, I spent some time at the patent office, which is where I really developed an interest in intellectual property. Seeing how ideas are documented and protected gave me a different perspective on product development. It wasn’t just about building something, it was about capturing what made it unique.
From there, I moved into a startup as CTO, where things became much more hands-on.
We needed parts. Not in theory, right away. So I bought a few 3D printers with my own savings. At the time, it was just meant to support a side project. I figured I’d use them when needed and maybe take on a few small jobs.
That didn’t last long.
People started asking for help.
How It Grew Over Time
At first, it was simple prints, basic FDM parts. The kind you’d expect from a standard desktop printer. Functional, but not perfect.
Then someone needed silicone components. That pushed me to learn casting. It wasn’t something I planned, but the need was there, so I figured it out.
Then another client wanted smoother finishes. FDM wasn’t going to cut it, so I moved into SLA printing. Better detail. Cleaner surfaces.
Then came requests for higher volumes. That led to molds, batch production, and eventually more complex setups.
It grew step by step, mostly driven by what people needed.
There was no master plan. Just a series of problems to solve.
Over time, that turned into a broader operation. Now, the work tends to fall into a few categories, each with its own challenges and pace.
Working With Inventors
The first is working with inventors. These are often people coming in with early ideas, sometimes just a rough sketch or a concept they’ve been thinking about for years. That’s usually enough to get started.
Some people apologize for how rough their idea is. They’ll say, “It’s just a sketch,” or “I don’t really know how this works yet.” But that’s fine. That’s where most good ideas begin.
What matters is that they’ve seen a problem and thought about a better way to solve it.
What’s important is sitting down together and working through the design in real time. Instead of sending files back and forth, we build it side by side. That way, questions get answered immediately, and the design stays aligned with what the inventor actually wants.
It also avoids a common issue. A lot of design work gets done in isolation. Someone hands off an idea, the designer runs with it, and then the result comes back… off. Not wrong, just not quite right. That leads to rework, delays, and frustration.
Working live cuts through that.
Some of the strongest ideas come from people who work in the field they’re trying to improve. A plumber, for example, might come in with a better way to carry a tank or connect a fitting. That idea tends to be grounded in real need, not theory, which makes it much more valuable.
They’ve already tried to find a solution. They’ve searched catalogs. They’ve asked around. If they’re still looking, there’s probably a real gap.
If they already have a prototype, that helps even more. Even if it’s rough. Even if it’s taped together.
We can measure it. Scan it. Test it. Improve it faster.
It speeds up the process and keeps costs down since most of the work is time-based.
The Iteration Process
From there, the process becomes iterative. We design, build, test, and refine. Each round brings the product closer to something that can actually be manufactured.
There’s no single “aha” moment where everything is perfect. It’s more like a slow tightening of the design.
You fix one issue, and another shows up. You adjust the shape, and now the material choice needs to change. You improve strength, and now cost becomes a concern.
That’s normal.
And importantly, the inventor decides when it’s ready to move forward.
Some people want to push until it’s as refined as possible. Others are comfortable moving ahead once it works well enough. There’s no universal answer. It depends on the product, the market, and the risk tolerance.
There’s always a balance to strike. You’re thinking about how the product works, how it looks, how it’s made, and how much it costs.
Those factors don’t always align perfectly.
A design that looks great might be hard to manufacture. A design that’s cheap to produce might not feel as polished. Part of the process is finding the right compromise for the situation.
Solving Unique Problems
Another group of clients comes in with more specific problems to solve. These aren’t always “products” in the traditional sense.
Sometimes it’s an artist who wants to reproduce a sculpture at a smaller scale. Other times it’s someone with an older piece of equipment that needs a part that no longer exists.
These projects can be unpredictable, but they’re often the most interesting.
In those cases, tools like CAD and 3D scanning become really useful.
You can scan an object, capture its exact shape, and then design around it. That allows you to create parts that fit precisely, even when the original item wasn’t designed with modern tools.
It’s especially helpful for things like custom mounts, brackets, or enclosures.
Instead of guessing, you’re working with real data.
Low-Volume Production
We also work with clients who need smaller production runs, maybe a few hundred units.
This is a tricky space.
It’s too many parts for simple printing to be efficient, but not enough to justify the cost of full production tooling.
So you have to get creative.
In those cases, we mix methods. Some parts might be printed. Others might be cut from sheet metal. Others might be cast.
The goal is to find the most efficient path without overcommitting.
Sometimes that means accepting a slightly higher per-unit cost in exchange for flexibility. Other times it means investing in a simple mold that can handle a few hundred cycles.
There’s no one-size-fits-all answer.
Scaling to Mass Production
Then there are clients who are ready for mass production.
At that stage, everything shifts.
Now you’re thinking about thousands of units. Maybe more.
Consistency matters. Cost matters. Lead times matter.
Design decisions that didn’t seem important before suddenly become critical.
A small change in geometry can affect how a part releases from a mold. A slight tweak in thickness can impact cooling time and cycle speed.
These are details you don’t worry about in early prototypes, but they become front and center at scale.
3D printing has improved a lot in recent years, especially as older patents have expired and new companies have entered the space. Machines are more affordable now, and they can handle more advanced materials.
That’s opened up new possibilities, especially in early-stage development.
Even so, there are still limitations.
The Limits of 3D Printing
Because 3D printing builds parts layer by layer, it naturally introduces weak points.
Those layers don’t always bond as strongly as parts made through traditional methods like injection molding. As a result, printed parts are more likely to crack under stress.
That doesn’t make them useless, it just means you need to use them for the right purpose.
They’re great for testing shape, fit, and general function.
They’re not always ideal for final products, especially if durability is critical.
Bridging the Gap
To bridge that gap, we often use hybrid methods.
One common approach is to create a silicone mold from a 3D printed part, then cast it using stronger materials.
This gives you something much closer to a real production part.
It’s more durable. More consistent. And you can produce multiple copies without starting from scratch each time.
In some cases, we go a step further and combine materials.
For example, we might embed a metal insert inside a cast part. That gives you strength where you need it and flexibility where you don’t.
These kinds of techniques open up options that aren’t available through a single process.
They also allow for better testing.
You’re not just asking, “Does this look right?”
You’re asking, “Does this hold up?”
Hidden Costs and Oversights
And that’s where a lot of hidden issues come to light.
Sometimes it’s not about how the product works, but how it ships.
A small change in size can push a product into a more expensive shipping category. That might not seem like a big deal at first, but over hundreds or thousands of units, it adds up fast.
Or take stacking.
If your product doesn’t stack well, you waste space. That affects storage, packaging, and shipping costs.
These are the kinds of details that don’t show up in a sketch.
You need real models. Real testing.
Thinking Beyond the Product
So the process becomes more than just designing a product.
It’s about thinking through the entire lifecycle, how it’s made, how it’s used, how it’s shipped, and how it holds up over time.
Each decision affects the next.
Material choice affects manufacturing. Manufacturing affects cost. Cost affects pricing. Pricing affects market fit.
It’s all connected.
That same mindset carries into patent strategy as well.
As you test and refine your design, you start to see which features actually matter.
Some elements turn out to be less important. Others become central.
Those insights help shape what you choose to protect.
When to File a Patent
There’s always the question of timing when it comes to filing.
Should you wait until everything is finalized? Or file early?
In most cases, if you have enough detail to clearly explain your invention, filing a provisional application is a good step.
It gives you a starting point.
A line in the sand.
From there, you can keep improving.
You’re not locked in. You’re just securing your place while the design evolves.
And because prototyping moves quickly now, you can make meaningful progress within that one-year window before filing a full application.
You can test, refine, and gather real feedback, all within that time.
Bringing It All Together
At the end of the day, this process works best when it’s collaborative.
The inventor brings the idea.
The designer refines it.
The engineer builds it.
The attorney protects it.
Each role matters.
No one does all of it alone.
And that’s a good thing.
Because when it works, when the idea turns into something real, something useful, something people actually want—you can see the value of that process.
It’s not just about getting to market.
It’s about getting there with something that holds up.