Why competence centers are an essential bridge between laboratory and factory

6-minutes read

Versatile Thermoplastics Particle Manufacturing (VTPM) additive manufacturing  technology expands industrial manufacturing capabilities. Industry doesn’t need “another 3D printer” — it needs tools that solve specific challenges. VTPM provides such tools.

Seven years of research (2018-2025) revealed a critical insight: there is a missing step in technology commercialization. Between development and deployment, technologies must be “proven” — tested and validated under real conditions.

What industry needs

Manufacturers optimize production across three parameters: cost, quality, speed. Different challenges require different combinations.

If a component isn’t on the critical path, speed doesn’t matter. If it’s on the critical path, speed becomes paramount.

Example: Tire manufacturing

— Would you like to make tires twice as fast?
— Yes.
— Our technology saves this much in resources. Implementation costs X, return is 1.5X.

The calculation is transparent. The solution is concrete. This is what manufacturing needs.

Example: Automotive bumpers

Bumper production requires tooling. Tooling is expensive and time-consuming to create.

Our proposition:
— We produce tooling differently: faster, cheaper, with rapid reconfiguration capability.
— We’ll take it.

When economic impact is measurable, technologies get adopted.

New technologies are different

But such direct conversations only work when technologies are proven. With new technologies, everything is more complex.

The innovator says: “We have equipment that can do this and that for you.” But to confirm the solution fits, research is needed. From the manufacturer’s perspective, such products aren’t ready yet.

This requires innovation infrastructure — competence centers and testing laboratories that complete the cycle from testing to implementation.

What competence centers do

Competence centers are organizations that:

• Adapt technologies to industry challenges.
• Share best practices.
• Train on new technologies.

This is the missing stage in bringing innovations to market.

Why this stage gets skipped

First reason: few understand how to apply new technologies. Usually only the inventors. Somehow it’s assumed they should identify all applications for their invention. But inventors don’t know the needs of all relevant  industries. It’s not their specialization.

Second reason: manufacturers trust independent sources more. They need someone to take the risks of the first application, figure it out, and teach them how to use it. This is costly. Few inventors can afford it. Plus, inventors think: the product is ready, development cycle complete. But the budget for the next phase may simply not exist.

Organizations that validate technologies

Main examples:

Centers of excellence (competence centers) — concentrate expert knowledge, develop and disseminate best practices, and drive innovation and efficiency through leadership, support, and strategic guidance rather than routine operational tasks.

Corporate innovation centers — internal units that test ideas and integrate them into business processes.

National laboratories — government structures for fundamental research and deep technology validation.

Technology parks and clusters — unite enterprises and centers in one location for joint testing.

Validation centers — conduct independent verification and certification before market launch.

Industry associations — when law assigns them responsibility for technology expertise and standard formation.

Reality check

Innovators seek support from government or corporations. Projects get evaluated by officials far removed from manufacturing and science.

They ask the wrong questions: “How many units have you sold? Zero? How will you sell them?”

They think the market is ready to buy. No, it’s not. Manufacturers focus on today — dealing with current situations. Of course they won’t buy.

Treating innovations like products makes no sense. Innovation creates capabilities.

Our industrial VTPM 3D printers create capabilities. Whether they get used depends on how seamless the transition is from “technology created” to “technology deployed.”

The best tool for this is a competence center that connects capabilities with needs.

How competence centers work

Centers establish connections between  scientists, universities, and businesses. Their staff coordinate science and industry efforts.

They approach manufacturers and say:

— This is new technology. It will save your casting operation 20% in costs by accelerating processes. You spend less on this and that. It costs this much. Here’s the direct calculation.

Everything is clear. Such solutions get adopted. Because centers employ specialists who have answers to manufacturers’ questions.

Who’s interested

Large research centers and universities — they’re designed for this. Their mission is answering questions: “What’s coming tomorrow?”, “What technologies will be needed?”, “What should we prepare for?”

Industry isn’t the right audience for innovators with ready technologies. The chance of meeting someone who immediately understands and risks implementing an unknown solution is small.

The right audience

The right audience thinks about tomorrow:

• National leaders building technological sovereignty.
• Industry executives responsible for development.
• Business leaders thinking years ahead.
• Those who take responsibility for development not just today, but tomorrow.

There has been a missing link between inventors in their laboratories developing innovative technologies, and the factory floor where these innovations are intended to be used. 

The ideal way to bridge this gap is to create centers of competence or centers of excellence which are there to facilitate the adoption of the vital new technology and make it easy for industry to assimilate it and put it to valuable use.

About this article

This article is based on research into VTPM technology commercialization (2018-2025) conducted by Advanced Engineering Intellectual Property (AEIP). For information on VTPM technology, competence center partnerships, or technology commercialization methodology, visit www.AEIP.llc.

Research behind a revolutionary 3D printing technology

5-minute read

From crisis to breakthrough: market opportunities

From 2021 to 2025, the global 3D printing industry underwent fundamental changes. Many expected rapid market growth, but instead it faced a historic contraction, with actual market size proving 23 times smaller than initial forecasts. However, this crisis created exceptional opportunities for Versatile Thermoplastics Particle Manufacturing (VTPM) technology.

The collapse of traditional leaders tells a clear story: In July 2025, Desktop Metal declared bankruptcy. Velo3D was delisted after losing 99.8% of its value. Industry giants like Stratasys and 3D Systems saw their market capitalization plummet by 78.8% and 94.3% respectively. The causes were systemic — a perfect storm of excessive optimism, rising interest rates that choked CapEx budgets, the collapse of IPO and SPAC bubbles. But most critically, though overlooked by analysts, was the disconnect between new technological capabilities and actual industrial demand. Real industrial demand emerges when innovators can offer manufacturers something they can use right now — something relatively simple and obviously beneficial to production.

Yet beneath the wreckage lay an undeniable truth: industry and academia needed industrial 3D printing solutions more than ever. The question was not whether the market existed, but why existing solutions had failed to address it.

Diagnosing the real problems in the industry

This market paradox, visible to us as early as 2017 at the peak of the additive technology boom, prompted comprehensive analysis of the root causes preventing industrial adoption of 3D printing. The research revealed systemic barriers that no incremental improvement could overcome:

Lack of standards and unified language

The emerging additive manufacturing industry necessarily operated without common terminology, quality metrics or performance standards. Engineers from different sectors were literally speaking different languages when discussing 3D printing.

Gaps in implementation methodology

The additive solutions being created excelled in technological demonstration but struggled with the practical reality of factory floor integration. The leap from laboratory success to production implementation remained largely unbridged.

Structural misalignment

Industrial customers needed the flexibility, sustainability and cost-effectiveness they were accustomed to. Existing equipment — designed for limited material options, and requiring complex setup and expensive proprietary consumables — could not deliver these basic requirements.

Missing knowledge infrastructure

Organizations attempting to adopt 3D printing lacked access to specialized expertise. Training was inadequate, best practices were not codified, and the learning curve was steep and expensive.

An entirely new concept, not just evolution

Rather than attempting to optimize existing approaches, our research team, very experienced in manufacturing, asked a different question: if we could design an industrial 3D printing solution from scratch, knowing everything we now know about what industry actually needs, what would it look like?

The answer was VTPM technology, built on fundamentally different principles.

Material versatility

Instead of being locked into expensive proprietary filaments or limited material choices, VTPM works with standard industrial thermoplastic granules and composites based on them. This not only dramatically reduces material costs but enables users to blend materials of their choosing and reuse their own materials and recycled polymers, radically expanding possibilities while delivering environmental benefits. Add to this the ability to print with special mixtures that allow creation of ceramic and metal objects through subsequent processing, and you see how wide this material range truly is.

True industrial scale

With a working volume of 1785 × 1200 × 960 mm and the ability to handle composite materials reinforced with carbon fiber, glass and other materials, VTPM addresses genuinely large-format industrial requirements, not just rapid prototyping.

Precision combined with speed

Achieving accuracy of 100 micrometers in the XY plane and 50 micrometers on the Z-axis at maximum speed for specific materials and technical parameters, with high acceleration and deceleration, represents a technical achievement that eliminates the traditional gap between precision and production speed.

Plug-and-produce simplicity

The equipment was deliberately designed with an intuitive interface requiring minimal and straightforward user customization. This was not merely a feature — it was a fundamental design principle reflecting years of research into what prevents adoption.

Universal scientific and production equipment

In creating VTPM technology, we followed the principle of first creating equipment with practically ideal (if difficult-to-achieve) parameters, so it could be used as truly scientific equipment. Modern materials science is developing rapidly, and for experiments scientists need the widest range of settings and practically “omnivorous,” “indestructible” equipment.

Market validation and scaling potential

We assessed market opportunities for VTPM in 2025 based on published quantitative evaluations from Wohlers Associates and other researchers. Analysis of global demand for 3D printing across scientific and industrial applications indicates:

Market size (2025)

$29.2 billion globally, with industrial applications comprising 69.5%.

Current TAM for thermoplastic 3D printing (2025)

$15.4 billion (a 24% decline in industrial shipments in 2024 created space for innovation).

Projected demand by 2026

800 machines (680 industrial, 120 scientific)

Projected demand by 2030

2,800 machines (2,300 industrial, 500 scientific)

This translates to a Total Addressable Market for VTPM of $2.4 billion by 2026 and $5.7 billion by 2030 under realistic market penetration scenarios.

Three development paths

The research identified three market development scenarios based on adoption rates and regional expansion:

Pessimistic scenario

Slow launch with financing and adaptation challenges yields a TAM of $1.72 billion by 2030, supported by 10-20 competence centers globally.

Realistic scenario

Coordinated launch of competence centers in partnership with governments and R&D institutions creates a TAM of $3.16 billion by 2030, with 20-80 regional centers and the launch of the 3D.Inc digital platform.

Optimistic scenario

Active government support and rapid center expansion generates a TAM of $5.7 billion by 2030, with 26-104 competence centers worldwide.

The competence center model: bridging the gap

The research revealed that direct equipment sales alone would be insufficient. Instead, VTPM’s market entry strategy centers on regional Centers of Excellence — specialized hubs designed to solve the adaptation gap that has plagued industrial 3D printing adoption.

These centers accomplish several critical functions:

1. Training and certification of engineers and operators.

2.  Applied research in materials and applications specific to regional industries.

3. Real-world validation of technology performance in production environments.

4. Knowledge transfer that bridges the laboratory-to-factory gap.

5. Best practice codification that becomes the foundation for industry standards.

The research timeline indicates launch of the first competence center in Georgia (Q2 2026), followed by expansion to North America, Europe and Asia-Pacific throughout 2026-2027. This geographic progression reflects both market potential and the critical importance of intellectual property protection — a finding that led to strategic recommendations about market entry sequencing.

Intellectual property and market entry strategy

The research included objective assessment of intellectual property risks across major markets. Analysis of patent infringement statistics and legal frameworks identified zones of significant risk.

High risk: countries with documented histories of retroactive patent registration and weak enforcement of international IP agreements.

Preferred entry markets: jurisdictions with established legal frameworks, transparent patent systems and strong enforcement records.

This finding directly shaped recommendations that VTPM prioritize North America, Europe and developed Asia-Pacific markets for initial deployment, with careful monitoring protocols for expansion into higher-risk jurisdictions.

The 3D.Inc platform: completing the ecosystem

Parallel to VTPM hardware development, the research identified a critically missing element: a global digital platform connecting customers with 3D printing specialists and best-practice knowledge.

The result is 3D.Inc, designed as a comprehensive digital hub that enables:

· Demand matching: organizations seeking 3D printing solutions can connect with specialized service providers.

· Remote execution: complex manufacturing tasks can be coordinated across global facilities.

· Knowledge sharing: best practices, material databases and application libraries become accessible to the entire ecosystem.

· Technology promotion: real-world success stories create the proof points that drive broader adoption.

Launched in conjunction with the first competence centers, 3D.Inc transforms VTPM from an isolated technology into a comprehensive industrial ecosystem.

Opportunity from adversity

The research journey that led to VTPM demonstrates how industry crisis, when analyzed with intellectual rigor, reveals opportunity. The 2021-2025 contraction in 3D printing was not market failure — it was the market correcting for years of misalignment between technological capabilities and practical needs.

VTPM, emerging from this analytical crucible, represents not an incremental improvement but a fundamental reconception of what industrial 3D printing should be: universal in material capability, intelligent in design, scalable in production, and integrated into an ecosystem that bridges the gap between innovation and adoption.

The research suggests that the window of market opportunity created by the retreat of major players remains open — but only briefly. The coming years will determine whether VTPM can establish the competence center infrastructure and market presence necessary to capture the enormous TAM identified by this analysis.

For organizations considering participation in this transformation, the research offers a clear conclusion: the question is no longer whether industrial 3D printing with thermoplastics is viable. That question has been answered. The question now is who will lead the transformation.

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About this article

This article synthesizes research conducted by Advanced Engineering Intellectual Property (AEIP) analyzing the global industrial 3D printing market, the systemic barriers to adoption, and the development path of Versatile Thermoplastics Particle Manufacturing (VTPM) technology.

For technical specifications, market data and partnership inquiries, visit our website or contact our team directly.

To learn more, read the VTPM White paper.