Maximising battery revenues for battery portfolio.

Ai-driven optimisation, forecasting and Qualified Scheduling Entity services.

Commercial optimisation for 29.7 MW of front-of-the-meter battery storage assets in Texas has been commenced by GridBeyond. This provides Ai-driven optimisation, forecasting and Qualified Scheduling Entity (QSE) services for SmartestEnergy’s South Texas battery portfolio in the USA.

SmartestEnergy's "Texas Ten" PPA portfolio has begun with three 9.9 MW battery energy storage systems located in Cotulla, Palmview and Edinburg, now actively participating in ERCOT’s real-time and day-ahead energy markets under GridBeyond’s optimisation and QSE representation.

The announcement comes as battery storage operators adapt to ERCOT’s Real-Time Co-Optimisation plus Batteries (RTC+B) market design, which went live in December 2025 and has changed how batteries participate in real-time energy and ancillary services markets. With energy and ancillary services now co-optimised in real time, and battery state of charge explicitly considered in market operations, asset owners require more sophisticated forecasting, bidding and dispatch capabilities to compete effectively.

Through its technology platform, GridBeyond combines AI-driven battery optimisation, energy price forecasting, automated bidding and QSE scheduling. This full-stack approach enables each asset to be dispatched into the right market at the right time, maximising revenue opportunities while managing degradation, state of charge and operational constraints.

GridBeyond's proprietary Bid Optimizer is purpose-built for this environment, leveraging advanced Ai to simultaneously optimise across energy and ancillary service products, aligning market price forecasts with battery state-of-charge simulations. This helps battery owners and investors respond to market volatility, capture stacked revenue opportunities and improve long-term asset performance.

Sean McEvoy, US President & Chief Product Officer at GridBeyond, said: "Battery storage is becoming significantly more sophisticated. Success in ERCOT is no longer determined simply by market participation, but by the ability to make thousands of optimisation decisions across multiple value streams while respecting asset constraints. Bringing these three BESS projects into commercial operation in ERCOT demonstrates the strength of our platform and our ability to deliver full-service solutions across multiple US ISO markets. Our team in Austin delivers real-time optimisation, market forecasting, and QSE services to help asset owners capture greater long-term value in one of the world’s most dynamic power markets."

Gavin Baker, VP Trading and Origination, SmartestEnergy US, said, "As ERCOT's market continues to evolve, having the right optimisation strategy and market expertise is critical to maximising the value of battery storage assets. Our continued collaboration with GridBeyond reflects our shared commitment to delivering innovative, data-driven solutions that help assets perform in an increasingly sophisticated market."

Across the U.S., GridBeyond provides optimsation and market access services across CAISO, ERCOT, PJM, MISO, and SPP, managing a rapidly growing portfolio of utility-scale battery storage, large flexible loads, and renewable generation assets. With 5+ GW under management globally and 900+ MW of battery storage, the company continues to expand its North American footprint to meet rising demand for intelligent, technology-led asset management.

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@GridBeyond_  @SmartestEnergy  #PAuto #Energy #USA #Ai

Supporting battery energy storage system deployment.

Software provides digital framework to maximise output, maintain grid stability, and ensure reliable, round-the-clock clean power delivery.

Emerson's Ovation™ Green supervisory control and data acquisition (SCADA) software is supporting Adani Green Energy Limited’s 3.55 gigawatt-hour (GWh) battery energy storage system (BESS) at Khavda, Gujarat, India — the world’s largest single-location battery storage deployment outside China. Developed by AGEL as part of its integrated renewable energy ecosystem, the BESS project is among the fastest executed globally.

Adani Green Energy Ltd’s 30 GW project at Khavda, Gujarat, India. Pic:Adani Green Energy.

Adani Green Energy Limited is India’s largest renewable energy company with more than 20 gigawatts (GW) of operational renewable energy capacity. The company aims to achieve 50 GW by 2030 and plans to add more than 10 GWh of battery storage in financial year 2027, scaling its battery storage portfolio to 50 GWh over the next five years to strengthen grid resilience and accelerate renewable energy integration.

The Ovation control and SCADA software — a small, yet critical part of the large-scale project—combines powerful control with expansive plant data in one integrated, scalable system. Seamless integration provides operators with intuitive access to the information needed for maximising output, maintaining grid stability, enhancing asset utilisation and operational excellence and ensuring safe operation.

Adani Green Energy selected Emerson as its automation partner for this landmark project, deploying the Ovation Green SCADA and the Ovation 4.0 software release with OCR3000 controllers. The system orchestrates millions of datapoints across power conversion systems, battery management systems, high-voltage switchboards and grid remote terminal units, ensuring seamless integration, grid compliance and operational reliability. The majority of AGEL’s 3.55 GWh BESS project capacity is controlled by Emerson’s Ovation platform.

“Emerson is proud to be part of India’s clean energy journey with Adani Green Energy,” said Anil Bhatia, Emerson’s vice president and managing director of India. “Our Ovation Automation Platform has long been trusted for mission-critical control in India’s power sector. With this successful gigawatt-scale deployment, Ovation software has proven to be the right platform for any kind of power generation — from traditional thermal plants to large-scale renewable storage.”

The AGEL 3.55 GWh BESS project at Khavda, Gujarat (India) was delivered within just 10 months from the commencement of on-site construction, setting a global benchmark for speed and scale in utility-scale energy storage. By combining powerful control with massive plant data in a single, integrated, scalable system, Emerson’s Ovation platform enables maximising output, maintaining grid stability, and ensuring reliable, round-the-clock clean power delivery.

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@EmersonExchange @AdaniGreen @Emerson_News @EMR_Automation @HHC_Lewis

Energy storage breakthrough.

Described as a milestone for lithium-free battery technology, a complete battery system demonstrator based on aluminum-graphite-dual-ion batteries (AGDIB) has been realised. This proves the stability of the new battery cell chemistry not only in a laboratory environment, but also in a more realistic scenario. The rechargeable AGDIB battery cells are a safe low-cost energy storage technology and follow the design-for-recycling approach, making them a future-proof lithium alternative for high power applications like dynamic grid stabilisation.

From cell to recycling: integrated value chain for an innovative battery system.
The rising demand for electrical energy – driven, for example, by the need to store and balance renewable energy – calls for suitable storage solutions. The rechargeable aluminum-graphite-ion battery (AGDIB) meets this need with its low-cost and easily available active materials aluminum and graphite. As a high-power storage device, the AGDIB can be charged and discharged in a very short time at high rates. This makes the AGDIB ideal for applications such as dynamic grid stabilisation, where batteries are used to balance frequency fluctuations with many low-energy micro cycles that favor high power performance over high energy density.

Aluminum-graphite-dual-ion battery system consisting of pouch cells, battery module, battery management system and quantum sensor.

While many new Li-free battery technologies are examined on lab-size cell level, battery system demonstrators employing new cell chemistries remain rare. However, such a battery system demonstrator based on AGDIB has now been set up within the INNOBATT project after scaling the technology to small-size pouch cells in previous research projects first. The development of this innovative battery system focuses on the whole value chain, from a sustainable Li-free cell chemistry over integration of wireless battery management system (BMS) and bidirectional quantum-based current sensor technologies to recyclability considerations.

Demonstrator validates stability of new Al-ion battery cells.
In a realistic test case, the INNOBATT demonstrator proves the stability of the new type battery cells. Integrating eight AGDIB pouch cells with a wireless BMS based on the open source BMS platform foxBMS® from Fraunhofer IISB* with secure radio frequency based (RF) communication, the prototype also features a novel diamond-based quantum sensor for high-resolution current measurement.

AGDIB active materials and cell design were improved to increase stability and reliability of the cells and ensure reproducible performance metrics. This allowed for a proper cell matching despite the manual manufacturing technology. The battery module was assembled in 4s2p configuration, employing a BMS-Slave with a safe wireless RF communication to the BMS-Master. The quantum sensor is based on NV-centers in diamond. In comparison to conventional current sensors, the measuring range covers five orders of magnitudes. Consequently, both small and large dynamical currents can be measured with a very high resolution.

This battery system successfully validates the Al-ion based cell chemistry and its high-power capabilities for grid stabilisation applications. Previously obtained results on cell level could be verified within the whole battery module by emulating instantaneous reserve applications based on real frequency data. The system proves stable performance with dynamic high current loads at 10C over long time periods and therefore demonstrates AGDIB’s ability for upscaling via successful cell manufacturing, cell interconnection and system integration. A major advantage of AGDIB is that it allows for very high discharge rates and, unlike many established battery systems, also high charging rates, as required for grid applications (e.g. providing virtual inertia).

The recyclability of the cells and modules was carefully considered during development. Cell recyclability was assessed through a physical separation process that eliminates the use of toxic chemicals, thereby facilitating the establishment of closed material cycles. The module design followed a design-for-recycling strategy, surpassing current EU regulatory requirements for battery recycling efficiencies and leading to the advancement and demonstration of this sustainable energy storage system.

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*The Fraunhofer Institute for Integrated Systems and Device Technology IISB is one of Europe’s leading research institutions for wide-bandgap semiconductors and power electronics, covering the complete value chain. The spectrum ranges from basic materials, semiconductor devices and process technologies, power electronic modules and components to complex power electronic and energy systems.

@FraunhoferIIS @UnnGmbh #Energy #Power

Scheduling and dispatch programme.

To revolutionise energy storage market in Ireland.

Ireland’s energy market is undergoing a major transformation through the Scheduling and Dispatch Programme (SDP). This initiative, led by the Transmission System Operators (TSOs), aims to enhance how electricity is scheduled and dispatched across the grid in Ireland and Northen Ireland. Battery energy storage systems (BESS) will be enabled to fully participate in energy trading, aligning with the EU Clean Energy Package and supporting Ireland’s renewable energy goals.

Under the new framework, batteries will be permitted to buy and sell electricity in the day-ahead, intra-day, and real-time markets in the same way as traditional power plants. This shift positions batteries as active market participants, capable of optimising their operation based on market price signals and system needs. The project enhances the economic viability of battery assets unlocking the access to multiple trading platforms and revenue streams and encourages broader participation in energy markets.

Batteries can communicate their intended charging and discharging schedules directly to the grid operators. This empowers asset owners to better align their operations with both market conditions and system demand, offering a higher degree of control over how and when batteries are used. It also allows for more efficient scheduling of grid resources, particularly during periods of volatility or high renewable generation. Transmission System Operators (TSOs) will also have real-time access to data on the state of charge of individual battery systems. This provides better situational awareness, enabling them to make more informed decisions about when and how to dispatch battery resources to balance supply and demand. Batteries will also receive clearer and more accurate operational instructions from the grid, which enhances their responsiveness and efficiency.

“The new Scheduling and Dispatch framework brings fantastic opportunities for BESS owners who will be able to take advantage of new revenue streams and smarter trading. By leveraging real-time data and predictive analytics, GridBeyond’s platform can support battery owners and operators to optimise dispatch and trading decisions,” said Richard O’Loughlin, Deputy CEO at GridBeyond.

“We have been offering energy services and trading operations for several years empowering asset owners with advanced tools and AI-powered solutions including Forecaster and Bid-Optimizer, which are essential for maximising revenue and achieving operational savings in Ireland’s energy market. With the ability to trade more freely and flexibly, battery operators can now tap into new revenue streams.
“The new framework will also accelerate the transition to a cleaner, more resilient energy system by integrating efficient operation of low-carbon technologies.”

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@GridBeyond_ #PAuto #Energy #Ireland

Optimising energy assets.

GridBeyond has launched Bid Optimiser and Designer for the National Electricity Market (NEM) in Australia, expanding its offer for asset owners following the launch of Forecaster in the second quarter this year.

“The launch of Bid Optimiser and Designer in Australia build on the foundation of our highly accurate Forecaster, with the objective of capturing maximum value and the back of our forecasting accuracy," said Chris O’Brien, Country Manager of Australia at GridBeyond. "The result is generating higher revenues for grid connected BESS, or optimising value behind the meter for customers with large energy loads, energy storage or generation. These products demonstrate our deep expertise in delivering intelligent, performance-driven solutions globally and our commitment to help Australian businesses add value through innovation.”

Bid Optimiser empowers asset owners by providing them with a strategic advantage in optimising their energy and ancillary market involvement, maximising the profitability both at an individual asset level and at a portfolio level. Bid-Optimiser leverages a multi-layered artificial intelligence framework that combines physics-based battery modeling with adaptive market intelligence. The system continuously evaluates market opportunities across all markets; ancillary services and energy, selecting the most profitable strategy, while managing operational constraints such as state of charge, efficiency and cycling warranty limits. The tool also offers the opportunity for users to customise their own trades, view trading history and compare against perfect foresight through the cloud-based interface, ensuring transparency and ease of reporting.

GridBeyond’s Designer product helps asset owners plan, design, and analyse prospective investments, allowing users to co-optimise project design and operations to maximise revenue from real time markets and make savings on energy spend while balancing other project goals such as carbon reductions.

As large scale battery investment and behind the meter installations grow rapidly, real-time battery trading is becoming more challenging and requires sophisticated tools that leverage AI to simplify decision-making whilst managing complex offtake agreements and merchant revenues.

Bid Optimiser and Designer join the Forecaster solution recently launched in Australia, providing a suite of tools to enable customers to explore various trading scenarios and quantify values and the probabilities related to different market participation strategies.

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@GridBeyond_ #PAuto #Energy #Australia

Battery energy storage system (BESS) solutions.

Energy and asset management software improves return on investment.

The release of specialised battery energy storage system (BESS) solutions featuring energy and asset management software for Emerson's Ovation™ Green portfolio of renewable energy solutions has been announced. Combining field-proven, purpose-built power plant controllers, energy management strategies and supervisory control and data acquisition software (SCADA), Emerson’s BESS solution connects devices and systems across manufacturers, aggregating and contextualising battery storage data into actionable insights to help optimise battery usage and extended battery life, enabling higher profitability, efficiency and sustainability.

Emerson’s Ovation Green BESS solutions will be on display at the Ovation Users’ Group conference, on July 27-31, 2025, in Pittsburgh, USA

The global battery energy storage market has reached an inflection point as technology advancements and global demand for sustainable electricity drive increasing value in renewable energy storage and grid management. As the International Energy Agency forecasts global electricity demand to grow at close to 4% annually through 2027, grid operators are bracing for increased load demand – a shift that will create dynamic changes in energy markets. Battery storage sites can capitalise on this market shift, but only if they can navigate the complexities of battery energy storage operation: siloed data, higher maintenance costs and a need for flexible operation to allow for safe, effective and efficient demand management.

“Today’s energy producers are increasingly creating hybrid projects with multiple renewable energy types – solar, wind, battery and more – aggregated together,” said Bob Yeager, president of Emerson’s power and water business. “This wide array of options empowers them to get the best return on investment, whether supplying energy directly to the grid in times of high demand or storing it when demand is low. Capitalising on constantly shifting markets means switching operating modes quickly on demand. This in turn requires a powerful, proven battery energy management system that integrates seamlessly with the site’s SCADA system.”

Ovation Green BESS solutions include an advanced, specialised battery algorithm suite that streamlines battery control through out-of-the-box, customisable function blocks that distribute proportioned setpoints to individual components such as inverters and battery management systems. The resulting control strategy automatically optimises charge and discharge cycles and grid interactions for fast, precise and reliable demand management.

Emerson’s collaboration with Zitara Technologies*, a leader in advanced battery management software, expands Ovation Green BESS capabilities by integrating cutting-edge battery management with the industry-leading Ovation Automation Platform. The enhanced solution provides operators with instant and accurate visibility into the state of charge and health conditions for batteries, improving the site’s energy power and availability forecasting and adding predictive safety features.

Through increased visibility and more granular control of all batteries, BESS owners and operators can achieve optimised battery usage and extended battery life, enabling higher profitability, efficiency and sustainability. In addition, the more standardised, repeatable approach to battery energy management enables faster deployment across multiple sites, reduces site visits and ensures consistent operations by eliminating the need to train every operator on a wide variety of OEM battery management interfaces.

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* See also "Partnership enhances battery management." (21/2/2025)

@EmersonExchange  @Emerson_News  @EMR_Automation @HHC_Lewis #Zitara #PAuto #Battery

Overcoming inherent Battery Energy Storage risks.

Early detection isn’t just a bright idea it’s the only way to keep the power on.

Battery Energy Storage Systems (BESS) are revolutionising the way our world is powered, acting as the source that keeps renewable energy flowing even when the sun isn’t shining or the wind isn’t blowing. As the backbone of modern energy infrastructure, BESS plays a crucial role in balancing supply and demand. However, with the increasing adoption of large-scale battery storage comes the responsibility for manufacturers, site managers and regulators to manage its risks effectively.

The High-Voltage Threat: Thermal runaway in battery storage.
Thermal runaway is the equivalent of a system overload. It’s a dangerous chain reaction in which an overheated battery cell loses its stability and begins to ignite its neighbors, setting off a firestorm that’s incredibly difficult to contain. It's of particular concern when dealing with lithium-ion batteries used in products such as electric vehicles, portable electronics, and grid-scale storage.

Much like an electrical surge that fries a circuit, thermal runaway rapidly escalates, putting lives, infrastructure, and energy security at risk.

Several factors can cause this dangerous phenomenon to ignite, including:

• Overcharging or overdischarging: Pushing a battery beyond its limits can cause excessive heat buildup, leading to system failure.
• Physical damage or manufacturing defects: Cracks, punctures, or design flaws can create weak links in the chain, making failures more likely.
• Environmental conditions: Exposure to high temperatures or external heat sources can turn a stable BESS into a ticking time bomb.

The fallout from a BESS fire can be severe, resulting in massive financial losses, grid instability, and environmental harm. And when you consider that these storage units are often installed near other high-energy infrastructure, the potential for disaster multiplies.

With the adoption of BESS units ramping up across the globe, soaring by more than 50% in 2024* alone, the potential risks must be managed in a way that safeguards workers, critical assets, communities, and the environment.

Stop the spark before it starts
The best way to prevent thermal runaway is to detect heat anomalies before they escalate. But without the right monitoring tools in place, operators are left in the dark, often unaware of hidden dangers until it’s too late.

That’s where thermal imaging technology plays a pivotal role. By offering continuous, real-time temperature surveillance, advanced thermal imaging can alert personnel to dangerous situations as they being to develop, so that no hot spot beyond specifications goes unnoticed. Like a circuit breaker that prevents an electrical overload, thermal monitoring acts as a failsafe, allowing site managers to catch and address overheating batteries before they ignite.

What makes a strong thermal monitoring system?
To truly keep BESS operations running smoothly without the risk of meltdown, thermal monitoring systems must offer:

• High-resolution imaging: The ability to detect even the slightest temperature variations across battery stacks, ensuring no heat anomaly slips through the cracks
• Wide field of view: Comprehensive coverage that leaves no blind spots, just as a well-designed electrical grid leaves no home without power
• Advanced analytics: Smart detection technology that filters out false alarms caused by reflections, weather, or routine human activity
• 24/7 real-time monitoring: A non-stop watchdog that never sleeps, ensuring site managers stay wired into potential risks at all hours.

With 640 × 480 thermal resolution, FSX® (Flexible Scene Enhancement) technology, on-the-edge analytics, and offered fields of view up to 80°, FLIR’s industry-leading A500f/A700f Advanced Smart Sensor camera is key to ensuring site owners' valuable peace of mind.

Powering a safer future.
BESS technology is charging ahead, and with it, the responsibility to keep energy storage systems safe and stable. If left unmonitored, thermal runaway could pull the plug on renewable energy progress, jeopardising the benefits of grid resilience, sustainability, and energy security.

By integrating cutting-edge thermal imaging into BESS infrastructure, operators can stay ahead of the curve, preventing small temperature fluctuations from sparking massive disasters. Because in the high-stakes world of energy storage, early detection isn’t just a bright idea it’s the only way to keep the power on.

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See also: Supercharging Global infrastructure! (May 2025)

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