Product Architecture · TRL 5–6
VENDOR Product Architecture
VENDOR.Max is the primary autonomous infrastructure power node and public deployment system within the VENDOR platform — designed for remote, weak-grid, and uptime-critical environments where conventional power infrastructure creates operational friction.
Development Notice
The systems presented on this page are at validation stage TRL 5–6. Final specifications, enclosure formats, thermal configurations, and deployment parameters may evolve as certification preparation, field validation, and pilot work progress. Public materials describe deployment architecture and evaluation pathways — not full technical disclosure. This is consistent with the project’s TRL-gated disclosure policy.
Primary Deployment System
VENDOR.Max
Infrastructure Autonomous Power Node
Infrastructure-grade autonomous power
for remote and weak-grid deployments.
VENDOR.Max is the primary autonomous infrastructure power node within the VENDOR platform — a modular infrastructure power architecture designed for continuous operation in infrastructure-constrained environments. Where uptime continuity, reduced maintenance burden, and lower logistics dependency matter more than conventional backup logic, VENDOR.Max is the deployment system the architecture is built around.
The system is a solid-state infrastructure power architecture with no combustion-based operating cycle and no rotating mechanical assemblies. At the current validation stage (TRL 5–6), it has accumulated 1,000+ cumulative operational hours under controlled laboratory conditions. Patent coverage: WO2024209235 (PCT) and ES2950176 (granted, Spain).
What VENDOR.Max is designed for
- Remote telecom sites and telecom tower power systems
- Off-grid and weak-grid power deployment environments
- Utility outposts and remote water operations infrastructure
- Industrial and security monitoring infrastructure
- AI edge and compute infrastructure in grid-constrained environments
Architecture profile
- Solid-state system architecture
- No rotating mechanical assemblies
- No combustion-based operating cycle
- Designed for long-cycle unattended operation
- Fixed and mobile deployment variants
Deployment scale
2.4 kW per module. Scalable in coordinated multi-module cluster configurations.
Modular topology supports graceful degradation: if one segment goes offline, remaining segments continue operation at reduced capacity rather than full shutdown.
Current validation status
Deployment Configurations · VENDOR.Max
Deployment Configurations
VENDOR.Max is currently presented through two primary deployment configurations — not as separate product lines, but as distributed infrastructure and mobility variants of the same underlying architecture. Both configurations share the same modular cluster approach: segments can be deployed individually or combined into coordinated infrastructure power deployments.
Configuration 01
Fixed Infrastructure Deployment
Standard enclosure format for permanent or semi-permanent site installation in remote and infrastructure-grade environments.
- Telecom tower sites
- Utility and water outposts
- Remote industrial facilities
- Off-grid critical infrastructure nodes
Configuration 02 — VENDOR.Drive
Mobility-Oriented Deployment
VENDOR.Drive is a mobility-oriented deployment configuration of the VENDOR.Max architecture.
Not a separate product line. A deployment use of the Max architecture, adapted for field-portable, vehicle-integrated, and rapid-deployment scenarios.
- Vehicle-integrated power infrastructure
- Mobile command posts and field operations
- Forward deployment power nodes
- Rapid-deployment infrastructure scenarios
Status: Deployment configuration in development. Evaluation access available for qualified discussions.
Architecture Logic
Why the Public Product Architecture
Is Max-First
The VENDOR product architecture is not a multi-product catalogue. It is a deployment-first logic built around one structural question:
Where does conventional power infrastructure create systemic friction?
- Grid access is limited or unreliable in remote power environments
- Diesel-based power systems create high logistics cost and operational risk
- Conventional backup power systems require frequent maintenance cycles
- Uptime requirements in critical infrastructure exceed what backup logic provides
Solid-state architecture without fuel logistics dependency and without battery degradation cycles is not a feature addition — it is what makes remote and weak-grid deployment operationally viable.
VENDOR.Max is positioned as the deployment response to those conditions — a remote power system designed for environments where off-grid power and infrastructure continuity are operational requirements. VENDOR.Drive extends that response to mobile and field-constrained scenarios. This is why the public architecture is Max-first: the active commercial path is built around infrastructure deployment, not IoT micro-power.
VENDOR.Zero
VENDOR.Zero remains available as an indexed historical reference page only.
It is not part of the current public deployment architecture, not included in the active commercial program, and not part of current solution routing.
No technical documentation, engineering disclosure, or commercial program access is provided for VENDOR.Zero at the current stage through the public product architecture.
View VENDOR.Zero reference pageProducts · FAQ
Frequently Asked Questions
What is VENDOR.Max and what development stage is it at?
What is VENDOR.Drive, and is it a separate product?
Is VENDOR.Max available to purchase or order?
What happened to VENDOR.Zero?
Technology · Reference Pages
Understanding the Technology
For architecture explanation, validation logic, and interpretive framing, use the dedicated technology pages. The Products page describes deployment architecture — technical depth lives in the pages below.
How It Works
Operating logic, two-contour architecture, regime formation and extraction layer.
Technology Validation
TRL 5–6 record, 1,000+ hours, independent verification pathway, certification roadmap.
Scientific Foundations
Electrodynamic principles and engineering framing.
Safety & Compliance
Reduced hazard profile, certification pathway, pre-compliance preparation.
Next Steps
What You Can Do Now
For infrastructure operators
Pilot Readiness Assessment
If you are evaluating a remote, weak-grid, or uptime-critical deployment scenario, the Pilot Readiness Assessment is the correct starting point.
For technical evaluators
Technology Validation
Review the validation record and operating architecture before requesting a deeper discussion.
For investors & strategic partners
Investor Access
Access structured project materials and evaluation context through Investor Access.