ARBOK-RADAR

Overview

ARBOK-RADAR addresses detection and tracking of low-radar-cross-section aerial targets, atmospheric particles, and weather anomalies for defence, border-surveillance, aviation, and maritime users.

The technology is grounded in ARBOK's broader approach: solving detection and sensing problems through superior physics and signal processing rather than added hardware complexity.

Applications

Primary use cases: low-RCS target detection and tracking, atmospheric-particle sensing, and weather-anomaly detection for defence, border-surveillance, aviation and maritime users.

Typical scenarios: industrial-scale, municipal, or strategic-supply segments.

Industries and users: as listed in Industry / Segment above.

Scale: project-specific, from pilot (single unit) to industrial (multi-unit cascade).

Operating Principle

Multi-frequency signal transmission and reception detect anomalies in the atmospheric return, with signal-processing algorithms distinguishing target signatures from background clutter. Detected signatures are classified and tracked, with outputs delivered to downstream command, surveillance, or forecasting systems.

Limitations: see Section 13 for specific risks.

Key Parameters

Detection range, frequency bands, and processing parameters are project-specific and defined per deployment; no single platform-wide figure applies generically across all sensing scenarios.

Architecture and Components

Core components: multi-frequency transmit/receive array; signal-processing and anomaly-detection unit; control and integration system (SCADA/PLC-compatible); data output interface to downstream command or forecasting systems.

The system is modular and scalable. Units can be combined or expanded depending on required coverage.

Advantages

Technical:

• Operates within the Arbok ZWD framework — no chemical workarounds

• High target-species selectivity per source article

• Modular, container-class deployment

Economic:

• See source article for application-specific savings, OPEX, payback

• OPEX scales with energy input; CAPEX scales with module count

• Avoids legacy-chemistry consumables

Environmental:

• Zero liquid discharge (where applicable)

• No secondary contamination

• Carbon footprint per output unit substantially below legacy approaches

Strategic:

• Independence from imported critical-mineral supply chains (where applicable)

• Independence from chemical reagent supply chains

• Compliance with emerging regulatory frameworks (EU CRMA, US IRA, etc.)

Integrations

Compatible with existing industrial infrastructure; SCADA / PLC ready; container-class deployment; can pair with adjacent ARBOK technologies (MedZWD, ZWD-Water, Pyrolysis, BEVERIX, MULTIPLIER, etc.).

Deployment & Operation

Implementation proceeds from site assessment and system sizing, through integration with existing communications and power infrastructure, to commissioning and handover to the operator.

Operating conditions: standard industrial utilities.

Operation: fully automated, minimal operator involvement.

Installation timeline: typically 2–6 weeks depending on scale.

TRL

TRL 5–6

Evidence: derived from the ARBOK validated sensing and signal-processing platform and adjacent commercial deployments. Specific application validation is documented separately.

Remaining steps: serial production with strategic partner; sector-specific certification; field reference site for the precise application.

Market Potential

Target industries: see Section 3.

Global market size: see source article for sector-specific figures.

Addressable share: high-value, regulated, or strategic-supply segments first.

Typical Project Economics

Capacity, CAPEX, OPEX and payback are application-specific and defined per deployment; no generic figures are assumed here.

Risk Factors

• Conservative industry adoption — established players defending legacy chemistry / hardware

• Regulatory pathway — varies by jurisdiction and product class

• Need for serial-production partner (ARBOK Institute is R&D, not a manufacturer)

• Awareness and education gap in the target sector

• Specific risks per application — assessed per deployment