From Prototype to Patient in Weeks, Not Years: Inside Latin America’s Fast-Track for 3D Printed Implants
While the global 3D printing industry continues to push the boundaries of what’s possible in healthcare, a critical bottleneck threatens to stall the sector’s momentum: the clinical validation gap. International medtech firms racing to commercialize next-generation 3D printed implants, surgical guides, and bioprinted tissues are discovering their biggest challenge is no longer material science—obtaining clinical evidence fast enough to satisfy investors, regulators, and surgeons.

Julio G. Martinez-Clark. Image courtesy of bioaccess.
The solution to this challenge is emerging not in traditional innovation hubs, but in Latin America. A regulatory revolution across the region is creating first-in-human (FIH) clinical trial pathways faster than their U.S. and European counterparts, transforming how companies approach the path to market for 3D printed medical devices.
The New Regulatory Fast Tracks
Several Latin American countries have implemented streamlined, innovation-friendly approval processes that maintain rigorous safety standards while dramatically reducing timelines. For medtech innovators, particularly those in the fast-moving 3D printing space, these 30- to 90-day windows represent a seismic shift from the 12+ month waits common elsewhere.
Brazil
With the enactment of Law 14.874/24, Brazil has overhauled its clinical trial framework, eliminating a historically complex double-approval system. The new law establishes predictable timelines, capping ethics committee reviews at 30 business days and regulatory analysis by its agency, ANVISA, at 90 calendar days for trials intended for market clearance. This parallel review process has slashed approval times from over a year to a reliable 60 to 90 days.
Panama
Anchored by Law 419, enacted in February 2024, Panama has established itself as a hub for regulatory velocity. The law’s expedited registration process for devices approved by High Standard Countries (HSCs) like the U.S. or EU member states eliminates redundant local evaluations and radically reduces time-to-market. This framework has enabled record-setting approvals for complex FIH studies in as little as two weeks.
Chile
The country offers an agile, ethics-committee-led system that is particularly attractive for novel technologies. Approval for Class I devices can be secured in approximately 30 to 60 days. This efficient framework and a strong domestic innovation ecosystem have made Chile a prime destination for medtech research and development.
Colombia
Colombia is poised to re-emerge as a top-tier destination for clinical research. A transformative new draft law bill is set to be introduced to its congress, aiming to establish one of Latin America’s most advanced regulatory frameworks. The proposed legislation introduces a risk-based “supervised trust” model that could slash approval times to 30 and 60 days, positioning Colombia as a world-class hub for complex trials, including first-in-human studies.
Dominican Republic
The Dominican Republic is also enhancing its position as a hub for clinical research, with a supportive regulatory environment that encourages innovation. The country’s health authority, DIGEMAPS, has implemented a simplified registration procedure for certain products, to reduce approval times to as little as two months. This commitment to accelerating timelines and a diverse patient population makes it an increasingly attractive location for medtech trials.
El Salvador
The nation is modernizing its rules for medical devices. In 2023, they updated the requirements for selling medical devices, and a new law is being considered that would make it easier to get approval for clinical trials through a single ethics committee. Importantly, if a device has already been approved by a high-level health authority recognized by the Pan American Health Organization (PAHO), El Salvador can grant its approval in as little as 10 business days.
The Quantified Upside: Speed, Savings, and Growth
Leveraging Latin America’s clinical trial ecosystem has advantages that are not just anecdotal; they are quantifiable and strategically compelling. One such advantage is investor-pleasing speed. In a capital-intensive industry, time is money. The ability to move from prototype to FIH trial in 30–90 days—or even faster in Panama’s case—is a powerful de-risking event that satisfies crucial investor milestones and preserves capital.
Another advantage is significant cost savings. Clinical trials in Latin America offer cost reductions of over 40% compared to North America. Analysis shows the median cost for a trial site in the region is just 59% of the U.S. baseline, allowing innovators to extend their financial runway and achieve more with less.
Finally, there is the draw of a hyper-growth market. Companies validating their devices in Latin America are simultaneously entering a burgeoning commercial market. The region’s 3D-printed medical device market is projected to grow at a compound annual growth rate (CAGR) of 33.1%, vastly outpacing North America’s 18.1%. This creates a dual opportunity to generate clinical data and establish an early market foothold.

Rendering of 3D printed medical device approval in Latin America. AI-generated image courtesy of 3DPrint.com.
Case Studies in Accelerated Innovation
The practical impact of these regulatory changes is best illustrated by the success of pioneering companies that have turned these pathways into a competitive advantage:
Newrotex’s Spider Silk Breakthrough UK-based Newrotex secured regulatory and ethics approval in Panama for a FIH trial of its SilkAxons™ nerve conduit in a remarkable 15 days. The device, a bioengineered nerve guide made from spider silk proteins, is designed to repair severe peripheral nerve injuries. “This regulatory approval validates our technology and fast-tracks our mission to transform peripheral nerve repair,” said Dr. Alex Woods, Founder and CEO of Newrotex. The rapid approval allowed Newrotex to generate critical human data supporting its global development roadmap, including future FDA and EMA submissions.
Axoft’s Ultrasoft Brain-Computer Interface Cambridge-based Axoft, a Harvard spin-off, is developing a revolutionary brain-computer interface (BCI) from materials up to 10,000 times softer than conventional implants. The company gained trial approval in approximately 60 days, leveraging Panama’s efficient framework. It successfully implanted its device in four patients just 2.5 years after its seed funding round—a timeline virtually impossible in the U.S. or Europe. This early human data was critical for demonstrating the feasibility of its novel technology and de-risking the company for investors.

Axoft’s Ultrasoft Brain-Computer Interface. Image courtesy of Axoft.
PAVmed’s Intraosseous Vascular Access Highlighting Colombia’s clinical trial capabilities, U.S.-based PAVmed completed the first-in-human implantations of its PortIO™ Intraosseous Infusion System in Barranquilla. The PortIO system is the first implantable device designed for long-term intraosseous (in-the-bone) vascular access, eliminating the need for regular maintenance flushes required by traditional venous ports. The initial procedures were straightforward and well-tolerated, with no complications. This successful FIH study demonstrates the region’s capacity to handle trials for innovative devices that address significant unmet needs for patients with poor venous access, such as those undergoing kidney dialysis.
Quality Without Compromise
This acceleration has not come at the expense of quality. All major Latin American regulatory agencies adhere to International Council for Harmonisation Good Clinical Practice (ICH-GCP) standards, ensuring data is robust and globally acceptable. Companies like ArcomedLab, a Chilean-American world leader in 3D printed craniomaxillofacial implants, demonstrate this commitment by manufacturing in ISO 13485-compliant clean rooms.

Arcomed makes largest cranial implant. Image courtesy of ArcomedLab.
Further bolstering quality assurance, the Global Quality Standard for Clinical Research Sites (GCSA) certification from the International Accrediting Organization for Clinical Research (IAOCR) is gaining traction in the region. This UNESCO-aligned accreditation provides independent verification that sites and professionals meet the highest international standards, reducing risks and aligning sites with the requirements of bodies like the FDA and ANVISA. For sponsors, choosing a GCSA-certified site provides confidence that it operates with world-class quality built into its processes.
A Practical Checklist for Innovators
For innovators eager to bridge the clinical evidence gap, a strategic approach to Latin America is essential:
- Map Device to Country: Align your device’s risk class and existing regulatory approvals with the optimal country. A device with prior HSC approval is a perfect fit for Panama’s reliance pathway, while a novel, higher-risk device may benefit from Brazil’s or Chile’s structured systems.
- Ensure ISO 13485 Rigor: Maintain and document strict adherence to ISO 13485 standards for quality management in your design and manufacturing processes. This is foundational for any regulatory submission, regardless of geography.
- Select an Expert Local Partner: Partner with a contract research organization (CRO) with deep regional expertise. Look for bilingual teams with a proven track record of successful submissions and established relationships with top clinical sites and ethics committees.
- Protect Intellectual Property: Protect IP protection in your target countries before initiating clinical activity. Appointing a local legal representative is often mandatory for managing regulatory interactions.
- Prepare Meticulous Documentation: The most common cause of delays is incomplete or improperly formatted submissions. Ensure all documents are complete, well-organized, and professionally translated to avoid unnecessary queries from regulatory agencies.
The Path Forward
Latin America has evolved from an “emerging market” to a critical clinical accelerator for 3D printed medical technology. The region offers an unmatched combination of regulatory speed, cost efficiency, and a high-growth commercial market. The choice for companies developing the next generation of 3D printed devices is clear: leverage Latin America’s advantages to accelerate validation and gain a decisive competitive edge, or risk being outpaced. The bridge from CAD file to the first patient has been built and runs directly through Latin America.
About the Author:
Julio G. Martinez-Clark is CEO of bioaccess®, a leading contract research organization specializing in Latin American clinical trials. Under his leadership, bioaccess® has achieved 40% faster approvals and 30% lower trial costs while maintaining the highest quality standards. He is an ambassador for the International Association of CROs (IAOCR) in the Americas and has facilitated over 100 medtech clinical trials across the region.
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