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NETWORK INFRASTRUCTURE

SynHub™
Distributed
Platform.

SYNHUB™ is Syntra's repeatable refining infrastructure platform. Each facility uses standardized design, modular construction, and AI-controlled operations. Deploy rapidly, co-locate with feedstock or demand centers, integrate seamlessly with upstream and downstream partners.

Distributed Infrastructure

Repeatable Facilities, Regional Resilience

SynHub™ deployed where supply and demand intersect

Repeatable Infrastructure

SYNHUB™:
Standardized Facilities,
Rapid Deployment

SYNHUB™ is not a custom-engineered facility. It is a standardized refining platform designed for rapid, repeatable deployment. Every SYNHUB™ uses identical unit operations, equipment specifications, and control systems. This standardization compresses development timelines from years to months.

Modular construction enables co-location with mines, battery plants, or port infrastructure. Each facility integrates directly with upstream feedstock providers and downstream offtakers through standardized material specifications and logistics protocols. No custom integration required.

Speed matters. Traditional greenfield refineries require 4-7 years from site selection to first production. SYNHUB™ facilities reach operational status in 18-24 months through prefabricated modules, proven engineering designs, and streamlined permitting enabled by standardized environmental controls.

DEPLOYMENT SPEED
18-24 Months

Site preparation to first production using modular construction and standardized permitting

DESIGN REPLICATION
100% Standardized

Identical equipment, controls, and process architecture across all facilities

CO-LOCATION
Flexible Siting

Deploy adjacent to feedstock sources, manufacturing demand, or logistics hubs

Deployment Strategy

Where Nodes Get Built

Feedstock Proximity

Refining nodes positioned adjacent to mining operations significantly reduce feedstock transportation costs and enable tighter integration with upstream producers. Proximity facilitates rapid response to feedstock quality variations and reduces supply chain vulnerability.

Node capacity is scaled to match regional feedstock availability, eliminating the traditional mismatch between distributed mine output and the large minimum capacity requirements of conventional centralized smelters.

Demand Center Positioning

Positioning refining capacity near battery manufacturing hubs reduces logistics complexity, transit time, and handling risk for refined products. This is particularly critical for battery-grade materials such as lithium hydroxide and nickel sulfate, which require precise environmental controls during storage and transportation.

Regional refining infrastructure enables just-in-time delivery models, reducing working capital requirements for customers and improving supply chain efficiency.

Logistics Infrastructure

Node placement prioritizes access to established industrial infrastructure including rail connectivity, port facilities, industrial water supply, and reliable electrical grid connections. Halifax serves as the anchor location due to its ice-free deep-water port, strategic positioning between North American and European markets, and established industrial corridor.

Availability of reliable utilities, transportation infrastructure, and industrial zoning is a mandatory prerequisite for node development consideration.

Rapid Deployment

18-24 Months to Production

Standardized design accelerates time-to-market

Operational Advantages

Why Networks Outperform Single Sites

Risk Distribution

Distributed architecture eliminates single points of failure. Scheduled maintenance, weather events, or localized supply disruptions at individual nodes do not compromise network-wide operations. Production capacity can be reallocated between nodes to maintain aggregate supply commitments to customers.

Incremental Scaling

Network expansion through additional nodes requires significantly lower capital expenditure and shorter construction timelines compared to expanding centralized facilities. Each node operates at optimal scale without the inefficiencies inherent in oversized infrastructure constructed for projected future demand.

Feedstock Diversification

Processing diverse feedstock types across different nodes reduces dependency on single material sources and specific supplier relationships. This flexibility becomes increasingly critical as battery chemistries continue to evolve and recycled material volumes scale significantly over the next decade.

Data-Driven Optimization

Operating multiple nodes generates substantially greater process data volumes than single-facility operations. This data enables continuous improvement through machine learning algorithms and advanced analytics, with process optimizations validated at individual sites before network-wide deployment.

Global Supply Chain

Material Flow Network

Integrated supply chain from mine to market, connecting raw material sources to end-use manufacturing

Detroit North America Charlotte North America Europe European Market
KEY MARKETS
Detroit, Charlotte
European Market

Extraction

Mine-to-port logistics from global lithium, cobalt, and nickel sources

Refining

Advanced hydrometallurgical processing at SYNHUB™ facilities

Distribution

Direct delivery to battery manufacturers and chemical customers

Circularity

Battery recycling and material recovery closing the loop