SOLUTIONS / HIGH-CONSEQUENCE ENVIRONMENTS

Understand the system.
Protect the operation.

Operational context across energy, communications, defense, industrial, and data center infrastructure.

Solar arrays, a substation and battery storage at an energy site
Energy

From generation to endurance.

Microgrids, solar, battery storage, utility systems, and distributed generation.

Asset healthEnergy availabilityDistributed capacity

How long can the system sustain current operations?

Connect generation, battery state, equipment availability, and demand. Interpret a degraded inverter in terms of reserve capacity and the loads that depend on it.

Discuss your environment
Remote telecommunications site with tower and equipment enclosure
Telecommunications

A network is only as resilient as its sites.

Remote facilities, communications equipment, site power, and edge infrastructure.

Site healthPower + communicationsDegraded connectivity

Is a communications fault also becoming a power problem?

Correlate equipment state with power and connectivity. Give operators context for investigating site degradation and prioritizing attention across distributed infrastructure.

Discuss your environment
Communications infrastructure supporting mission operations
Defense & mission systems

Mission-aware infrastructure intelligence.

Installation microgrids, communications, base infrastructure, and distributed operating environments.

Installation resilienceCritical-load contextEnergy endurance

Which infrastructure conditions put mission continuity at risk?

Relate available energy, communications, and equipment to operational requirements. Designed to support decision-making in constrained or degraded environments.

Discuss your environment
Industrial process equipment and piping
Industrial infrastructure

See beyond the individual asset.

Manufacturing, water, transportation, utilities, and industrial automation.

Operational continuityEquipment stateCross-system visibility

Which developing condition could affect the wider operation?

Connect equipment behavior and cross-system dependencies to identify where operators should investigate first, before an isolated condition develops into a wider problem.

Discuss your environment
Data centers

Power, cooling, and compute as one system.

Power distribution, UPS and battery systems, backup generation, cooling plant, and the compute loads they protect.

Power + cooling contextBackup enduranceCritical-load visibility

Is a cooling change about to become a capacity problem?

Relate cooling performance, the power path, and backup reserves to the loads they support, so operators can see when an equipment condition begins to affect availability.

Discuss your environment

One picture.
Better questions.

Across several microgrids, CarbonDex can help teams connect local conditions with shared operational needs.

01

Which assets are degrading?

02

Which mission loads are at risk?

03

What happens if another asset fails?

04

Which site has available capacity?

05

Is connectivity limiting visibility?

06

Where should we investigate first?

FAILURE ANALYSIS

A small change.
A system-wide consequence.

A thermal deviation becomes meaningful when voltage, communications, efficiency, and environmental context are considered together.

Connected operating picture
INTERACTIVE SIMULATION
MICROGRID / SITE ALPHAT + 00:00
Operational dependency map from generation through conversion and storage to critical loadSolar arraySOURCEInverter 04NOMINALBattery storageRESERVECritical loadPRIORITY 01Edge intelligenceCARBON SENTINELDEPENDENCIES
Solar arraySUPPLIES →
Inverter 04NOMINAL
Battery storageRESERVE →
Critical loadPRIORITY 01
Carbon SentinelLOCAL SYSTEM CONTEXT
TELEMETRY / READINGSBaseline established
Equipment temperature42°C
Voltage instability0.2% deviation
Communication retries0.1% packets
Ambient temperature26°C
Conversion efficiency97.0%
Downstream exposureContained
Risk stateNormal
OPERATIONAL USE CASES

Intelligence with a purpose.

Predictive maintenance

Identify developing degradation and potential failure states where available telemetry supports earlier warning.

Operational resilience

Maintain a clearer understanding of infrastructure as operating conditions change.

Multi-site command

Create one operating picture across distributed assets and facilities.

Cyber-physical correlation

Connect security events with physical telemetry to investigate potential operational consequences.

Energy endurance

Understand generation, storage, load, and resource availability in context.

Root-cause investigation

Investigate relationships between changing conditions and test plausible explanations.

Asset health

Track changing equipment behavior and operational state over time.

Failure-state forecasting

Surface combinations of conditions that may indicate movement toward an undesirable state.

Mission & load prioritization

Interpret infrastructure risk against the loads and operational requirements that matter most.

GOVERNMENT / FEDERAL SYSTEMS

Start with the
operating requirement.

For public-sector evaluation, begin with the infrastructure dependency, data boundary, deployment constraints, and operator workflow. Discuss the evidence required to evaluate suitability for a specific environment.

Discuss an evaluation
THE NEXT OPERATIONAL ADVANTAGE

Understand the system.
Before the next critical event.

Your infrastructure already produces the data.
The next step is understanding what it means.