Our Projects

Purpose:

VENDOR is an engineered implementation of a regime-based nonlinear electrodynamic system with functional separation between regime formation, loss compensation, and useful power extraction.

The system is designed for autonomous and hybrid energy nodes where stability of operation, controllability, absence of fuel and mechanical components, and industrial reproducibility are critical.

VENDOR does not belong to the class of linear “energy sources” in the traditional input–output interpretation. It is an open electrodynamic system in which useful power is extracted from an internally maintained energy regime through a separate circuit.

Origin:

The project originated from applied engineering research in pulsed power electronics, nonlinear gas-discharge dynamics, and resonant electrodynamic systems.

Its architecture follows a two-loop model:

– Circuit A: Active Core (regime formation and maintenance)

– Circuit B: Linear Extraction (classical electromagnetic power take-off)

This functional separation eliminates a direct linear dependence between instantaneous input and output, requiring a correct open-system energy balance model. The architecture is protected by patents and supported by laboratory validation of regime reproducibility.

Current Stage:

The technology has completed laboratory validation of the operating regime and its repeatability.

Intellectual property status:

– Spain: Granted patent

– PCT international application

– National phases: EU, USA, China, India

The current phase focuses on pilot prototypes and industrial verification under standardized measurement and open-system energy audit protocols.

Energy Model Clarification:

VENDOR does not claim efficiency greater than 100%.

In classical linear systems, efficiency is defined as the ratio of output power to input power. In regime-based systems, this definition must account for internal energy circulation and correct system boundary conditions.

Within VENDOR architecture:

– external input compensates irreversible regime losses,

– useful power is extracted from internal energy turnover via a separate circuit,

– total measured input equals useful output plus all irreversible losses and stored-energy changes.

Apparent interpretations of “η > 100%” arise only when system boundaries are incorrectly defined or when only the regime-maintenance channel is counted as input. Under proper energy accounting, conservation laws are fully respected.

Projected Economic Potential:

The economic value of VENDOR is not based on extraordinary efficiency claims, but on architectural properties:

– no fuel requirements,

– no rotating machinery,

– minimal mechanical wear,

– electronic control of regime stability,

– compatibility with distributed and hybrid grid topologies.

This positions VENDOR as an engineering alternative to strictly linear generation models, particularly for autonomous and distributed energy infrastructures.

Patent Protection and System Integration:

The patents protect the architectural principle of separating regime formation from power extraction.

The system is developed with open interface compatibility:

– inverter integration,

– grid-forming and grid-following modes,

– deployment within distributed energy nodes.

The intellectual property protects the method of regime management and system architecture — not a claim of extraordinary energy production.

Link: https://vendor.energy

The development of TESSLA™ and VECSESS™ represents an engineering response not only to the technical, but also to the economic vulnerability of modern energy infrastructure.

According to international assessments:

– annual economic losses from large-scale power outages amount to hundreds of billions of euros globally,

– transmission and distribution losses typically range between 5–12%,

– a significant share of transformer and grid assets in developed economies has been operating for 25–40+ years,

– grid demand is rapidly increasing due to electric vehicles, heat pumps, and AI data centers.

In many cases, the challenge is not a lack of installed generation capacity, but architectural rigidity and cascading regime instability within centralized systems.

TESSLA™ proposes a transition from the linear model “generation → transmission → consumption” toward a cellular energy structure designed to enhance local controllability and resilience.

Within this architecture:

– each node is capable of locally forming and stabilizing its own operating regime,

– load redistribution occurs horizontally between neighboring nodes,

– dependency on long-distance transmission is reduced,

– cascading failures can be localized rather than propagated system-wide.

VECSESS™ functions as the core solid-state energy module (CPC H02M / H03K), designed for local stabilization and dynamic load balancing through pulse-controlled power conversion.

The economic impact is driven by:

– reduction of transformer overload conditions,

– peak shaving and improved load distribution,

– lower transmission stress and reduced energy losses,

– decreased infrastructure wear,

– mitigation of outage-related risks.

For industrial facilities and data centers, even short interruptions may result in financial losses ranging from tens of thousands to millions of euros per hour. A distributed resilience layer reduces the probability and scale of such disruptions.

Rather than replacing national grids, the proposed architecture introduces an additional structural layer that increases the utilization efficiency of existing infrastructure, extends asset lifespan, and supports growing demand without proportional expansion of centralized capital expenditure.

Even partial reduction in outage frequency, transmission stress, and peak overload conditions can contribute to measurable system-wide economic benefits and improved long-term infrastructure sustainability.

The architecture is currently at the stage of engineering modeling and node-level prototyping, with primary focus on regime stability, economic feasibility, and compatibility with existing distributed grid standards.

Explore the detailed engineering overview:

Solid-State Energy Infrastructure: TESSLA™ / VECSESS™ Architecture

The growing interest in space-based power systems, orbital energy infrastructure, satellite platforms, and space-based AI data centers creates a new technological demand for resilient solid-state energy architectures capable of operating in vacuum environments, under radiation exposure, and across extreme thermal cycles.

Micro Digital Electronics Corp is conducting preliminary design work on a solid-state energy architecture concept potentially compatible with space and orbital applications. This direction builds upon accumulated expertise in pulse-controlled discharge structures and vacuum-compatible electronic systems.

Unlike traditional chemical power sources or large battery-based storage systems, the architecture under consideration focuses on:
– minimized mechanical components,
– compatibility with vacuum environments,
– pulse-regime power control,
– integration into distributed orbital energy nodes and modular space infrastructure.

Preliminary modeling suggests that certain electrodynamic regimes under low-pressure conditions may exhibit different field distribution and discharge stability characteristics. These effects require dedicated experimental validation in specialized facilities simulating space conditions.

Key research areas include:
– radiation tolerance of components,
– parameter stability under cyclic thermal stress,
– long-term durability of discharge elements in microgravity,
– compliance with established space electronics standards.

The project is currently at the conceptual design and engineering analysis stage. Progress toward experimental validation will require access to specialized testing infrastructure, including vacuum chambers, thermal cycling systems, and radiation assessment facilities.

This direction forms part of the company’s long-term development roadmap and is positioned as a potential contribution to distributed orbital energy infrastructure supporting satellite systems, autonomous platforms, and future space-based computing environments.