Driving smarter interconnections and flexible grid management

Camus combines a comprehensive data fabric, AI-driven insights, and powerful applications to accelerate interconnections, streamline engineering analyses, and enable flexible operations.

UNLOCKING AN ORCHESTRATED FUTURE

Camus bridges three key gaps for integrating new loads and generation

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1. Bring grid-wide visibility to utility operators

Camus provides real-time and forecasted insights, analyzing AMI, GIS, SCADA, and DER data to help operators monitor the grid and proactively address constraints
Features
Transformer loading

Protect service transformers and avoid unexpected outages by monitoring aggregated loads on upline equipment, including historical, near real-time, and forecasted loading.

EV detection

Identify up to 80% of Level-2 electric vehicle charging locations with machine learning-backed analysis of meter data.

Aggregated point forecast

View aggregated load forecasts for any point on the grid, including transformers, reclosers, feeders, and substations. Anticipate and mitigate abnormal conditions, including backflow and overloading.

2. Dynamically orchestrate local resources

Camus optimizes flexible interconnections and DERMS to protect infrastructure and serve more loads and generation with existing grid capacity
Features
Equipment-protective control

Protect distribution infrastructure and avoid premature replacement by incorporating upline equipment’s operating constraints into DER dispatch algorithms.

Dynamic operating envelopes

Provide developers with operating constraints that change based on real-time and forecasted grid conditions. Accelerate interconnections without sacrificing reliability.

DER aggregator coordination

Ensure third-party-controlled aggregations of DERs respect distribution-level constraints while participating in wholesale markets via dynamic operating envelopes.

3. Streamline planning and interconnection analyses

Camus simulates grid impacts of new loads and generation using real-world data, helping utilities prioritize investments and improve interconnection planning
Features
Feeder-level voltage analysis

Mitigate voltage deviations and avoid damage to utility equipment by monitoring and forecasting load and voltage for each feeder.

EV & DER impact simulations

Estimate how DER adoption scenarios, including electric vehicle charging, will impact utility equipment with data-driven power flow simulations. 

Equipment upgrade prioritization

Identify heavily-burdened distribution infrastructure and prioritize upgrades based on likelihood of failure and ability to avoid overloading or backfeed via DER control.

KEY FEATURES
Transformer loading

Protect service transformers and avoid unexpected outages by monitoring aggregated loads on upline equipment, including historical, near real-time, and forecasted loading.

EV detection

Identify up to 80% of Level-2 electric vehicle charging locations with machine learning-backed analysis of meter data.

Aggregated load forecast

View aggregated load forecasts for any point on the grid, including transformers, reclosers, feeders, and substations. Anticipate and mitigate abnormal conditions, including backflow and overloading.

KEY Features
Equipment-protective control

Protect distribution infrastructure and avoid premature replacement by incorporating upline equipment’s operating constraints into DER dispatch algorithms.

Dynamic operating envelopes

Provide developers with operating constraints that change based on real-time and forecasted grid conditions. Accelerate interconnections without sacrificing reliability.

DER aggregator coordination

Ensure third-party-controlled aggregations of DERs respect distribution-level constraints while participating in wholesale markets via dynamic operating envelopes.

KEY Features
Feeder-level voltage analysis

Mitigate voltage deviations and avoid damage to utility equipment by monitoring and forecasting load and voltage for each feeder.

EV & DER impact simulations

Estimate how DER adoption scenarios, including electric vehicle charging, will impact utility equipment with data-driven simulations. 

Equipment upgrade prioritization

Identify heavily-burdened distribution infrastructure and prioritize upgrades based on likelihood of failure and ability to avoid overloading or backfeed via DER control.

RELIABILITY AT SCALE

Proven technology from experts in scale

Camus is built by the experts who developed Google’s global computing platform, delivering 99.999% uptime for critical systems. Today, we apply the same proven approach to process massive volumes of grid data in real time, ensuring unparalleled reliability and scalability.

Woman looking at computer screen in a dark room.
Securing the Grid of Tomorrow

Zero trust cybersecurity for critical infrastructure

Camus employs a zero trust cybersecurity model that authenticates each user through multi-channel mechanisms, granting access only to explicitly authorized systems. This end-to-end approach protects infrastructure better than traditional firewalls or VPNs, which focus on external threats but leave internal services vulnerable.

With Camus, utilities and developers can operate securely in a rapidly evolving grid environment.

AI FOR CRITICAL SYSTEMS 

Cross-silo data analysis by category-leading AI

Camus unifies and analyzes data from customers, utilities, DERs, and third parties, using best-in-class AI and machine learning to address today’s challenges.

From addressing delays in AMI data collection to accelerating the convergence of power flow models, our AI-derived insights transform how utilities view and manage their grid.

FREQUENTLY ASKED QUESTIONS

Learn more about the Camus Platform

What are the most common use cases for the Camus platform?

Most utilities use Camus to enhance real-time visibility of their distribution grid, streamline complex engineering analyses, enable flexible interconnections, or dispatch fleets of DERs to support the grid locally. Every utility begins by establishing a shared data foundation, with specific use cases tailored to their near-term priorities.

For developers, Camus accelerates interconnections through a flexible interconnection model. Paired with grid sensing hardware, our software forecasts constraints and dynamically adjusts local generation and loads to protect utility equipment, helping avoid delays caused by upgrade requirements.

Where is Camus' software platform deployed?

Camus is deployed by investor-owned and public power utilities across the U.S., with our first grid-scale deployment rolling out in 2020. Our platform has orchestrated devices ranging from residential EV chargers to front-of-the-meter solar and storage systems, demonstrating unparalleled versatility. With industry-leading data integration and meter-level forecasting for millions of meters, Camus sets the standard for scale and efficiency in real-world grid operations.

How is your platform different from a DERMS?

Camus is first and foremost a data platform, with Grid DERMS as one of several applications. Unlike traditional DERMS, Camus focuses on forecasting grid constraints and service opportunities, translating these insights into signals for DER aggregators and site-level optimizers. For residential utility customers, we integrate with Edge DERMS partners rather than connecting directly to devices. For fleets, data centers, and large-scale distributed solar, we work with site-level optimizers, including asset management systems.

Camus supports Grid DERMS use cases, but our platform goes further. By combining real-time grid visibility, AI-powered analytics, and hyperlocal load forecasting, Camus provides a transformative data foundation that empowers utilities and developers to tackle the complexities of a rapidly evolving grid.

Can I trust AI for critical grid operations or planning workflows?

Camus’s AI is purpose-built for critical systems, drawing on our team’s experience building and deploying some of the world’s first AI and automation tools for critical infrastructure at Google, Meta, and Amazon. We’ve seen firsthand how important it is to build trust among operators, and we apply proven approaches to achieve it.

To tackle the 'black box' problem, Camus ties AI inferences to underlying data, ensuring users can clearly understand why a recommendation is made. For automation, we use a 'ladder of trust' approach, starting with AI observing manual actions by knowledgeable operators, then moving to recommendations with oversight, and finally to automated actions with alerting for unusual conditions.

At Camus, we take trust seriously and welcome conversations with utilities, developers, and technology partners about our approach to deploying AI for critical infrastructure.

What's the deployment timeline? How much work is required from us?

We typically deploy the platform within 10–12 weeks of receiving data access. Once live, the platform is continuously updated via ongoing data pipelines, and new data sources can be added seamlessly over time.

To minimize the workload for your IT team, we handle the heavy lifting. Ingesting data from AMI, GIS, and SCADA systems requires as little as 5–6 hours of IT involvement. We know IT and OT teams are already stretched thin, so we work hard to minimize disruption.

For applications like flexible interconnection or DERMS, deployment timelines may extend if integration with new technology partners or additional hardware is required. Our team works closely with your stakeholders to streamline this process and ensure a smooth rollout.

What’s your pricing model? Is it capitalizable?

We offer flexible pricing that can align with your budgeting needs, including options that allow for capitalization. Reach out for more details on how we can structure a plan that works for you.

SEE IT IN ACTION

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