What Technologies Does Vcom3D Use for Immersive Training?

Vcom3D builds immersive and blended-reality training systems that combine physical medical manikins with virtual patients, augmented reality overlays, and networked simulation. Its technology stack spans AI architectures, virtual medical simulation, mixed/augmented/virtual reality, learner assessment, and a distributed learning platform. This is relevant if you are evaluating simulation-based training for clinical or human-interaction skills, particularly where physical trainers and virtual environments need to work together.

Core technology areas

Vcom3D organizes its technical expertise into several connected areas rather than a single product:

• Artificial Intelligence (AI) architectures — used to drive and coordinate simulation behavior.
• Virtual medical simulations — 3D virtual patients and simulated clinical scenarios.
• Medical manikins and part-task trainers — physical training hardware.
• Medical device instrumentation — simulated or instrumented medical equipment.
• Learner assessment — capturing and evaluating performance.
• Mixed Reality (MR), Augmented Reality (AR), and Virtual Reality (VR) — the display and interaction layer.
• Advanced Modular Manikin (AMM) — a modular manikin approach.
• STE Medical Distributed Learning Platform — a platform for distributed training.
• Live / Virtual / Constructive / Gaming — a spectrum of simulation modes.

How the pieces fit together

The unifying mechanism is a Family of Systems (FoS) team-training architecture. Rather than treating each simulator as a standalone unit, Vcom3D networks interoperable peripherals — manikins, part-task trainers, 3D virtual patients, environmental effects, and virtual medical equipment — into one training environment.

A concrete example from the site: Compact Core provides the platform for integrating disparate medical simulators across physical and virtual simulations. MedSimMRT is built on Compact Core and is a mixed reality trainer that integrates manikins with virtual equipment and anatomical overlays. So a learner can work on a physical manikin while AR overlays add virtual anatomy and equipment that the physical model alone cannot represent.

Products that carry these technologies

IMPACTT is notable because it comes in two forms: Onsite (in-person) and Remote (virtual, VR). Together they let learners train in person, remotely, or in joint sessions from different locations using their own PCs.

Assessment and continuous improvement

Vcom3D states that its immersive blended reality systems engage participants, assess learner and team performance, and support continuous improvement of learning outcomes and clinical outcomes. Assessment is therefore treated as part of the training architecture, not an add-on. The MRT research publication describes real-time performance feedback alongside AR overlays and virtual anatomical visualization, which illustrates how assessment is embedded in the simulation itself.

What to check before choosing

• Physical vs. virtual balance — if your training requires hands-on manikin work, MedSimMRT or MRT-FC3 are the relevant options; if you need remote or distributed team sessions, look at IMPACTT Remote and the STE Medical Distributed Learning Platform.
• Standards and interoperability — Vcom3D's research highlights leveraging open standards to create mixed reality medical simulations, which matters if you need to integrate with existing simulators.
• Deployment mode — confirm whether you need onsite, remote, or a mix, since IMPACTT is explicitly offered in both.
• Pricing and access — the site invites inquiries about products and pricing but does not publish figures, so cost and licensing terms must be requested directly.

For current product details, announcements, and research publications, the Vcom3D site's Products, Technology, and Research Publications sections are the primary sources.