Build more capacity
Growth was primarily measured in installed megawatts and gigawatts.
- Acquire and develop new projects
- Add wind and PV capacity
- Expand portfolios rapidly
- Optimize assets mostly in isolation
Unify wind, PV, BESS, trading, market, and weather data on a future-ready platform. Build a robust foundation for reporting, governance, data products, analytics, and AI in the energy industry.
The next competitive advantage will not come from owning more megawatts alone-but from extracting more value from every existing asset, every grid connection, and every flexibility option.
Growth was primarily measured in installed megawatts and gigawatts.
New capacity remains essential, while grid access, permitting, available sites, and operational complexity increasingly limit expansion.
Leading producers combine technical, market, weather, grid, maintenance, and BESS data to improve every operational and commercial decision.
Wind, PV, and BESS generate valuable data every second. In many energy companies, however, this data remains distributed across SCADA systems, OEM portals, BMS platforms, weather services, trading platforms, Excel files, and maintenance systems. Each department sees only part of the reality.
SCADA, BMS, OEM portals, market systems, and maintenance systems deliver contradictory fragments. KPIs are calculated multiple times and according to different rules.
Management reports arrive after economically relevant events have already passed. Trading and operations continue to reconcile data manually.
Curtailment, outages, grid limits, sensor errors, and market decisions are viewed in isolation. Lost MWh cannot be explained unambiguously.
Trading sees market opportunities, but not always the BESS's truly available flexibility corridor, including SoC, limits, reservations, and degradation.
REMIT, unbundling, NIS2, and audits require evidence of what information was available when, who was allowed to access it, and how decisions were made.
Without asset IDs, quality flags, historical context, and approved data products, answers may sound convincing but remain unreliable.
It connects wind, PV, BESS, grid, weather, maintenance, and market data in a historized and traceable data foundation. Raw data becomes quality-assured data products, conflicting KPIs become a shared truth, and reactive decisions become proactive control.
An energy platform must do more than store data. It must consolidate sources, assure quality, make lineage traceable, and turn data into curated products, analytics, and productive applications.
From raw data storage through every transformation step to the KPI, it remains clear where a value came from and how it was calculated.
Connect asset data, trading information, market prices, weather, maintenance, and finance in one shared data logic.
Use curated data products as the starting point for dashboards, chatbots, one-pagers, BESS optimization, and custom business applications.
The Energy Data Lakehouse does not replace SCADA, CMMS, ETRM, OEM portals, or BI tools. It connects them through a shared, historized, governed, and reusable data foundation.
The Consumption Layer controls who may consume which data and through which channel. It turns governed Data Lakehouse content into secure, high-performance services for internal teams, BI platforms, cloud analytics, partners, and operational applications.
Role-based and policy-based permissions define which users, departments, applications, or external parties may access specific data products, domains, and fields.
Approved cloud analytics services can consume only the data they require-without receiving unrestricted access to the underlying Data Lakehouse.
Power BI, IBM Cognos, and other analytics applications consume curated and quality-assured data products instead of fragmented raw data extracts.
An API Gateway exposes governed data services through performant REST APIs with authentication, authorization, throttling, monitoring, and complete auditability.
Curated data products make it possible to provide data from the grid, generation, operations, and trading in a targeted, secure, and compliant way. Instead of unstructured raw data, business teams receive approved, quality-assured, role-based views tailored precisely to their use case.
The generation company receives only the grid-relevant information that has been approved operationally and from a regulatory perspective. This creates an actionable view of restrictions and feed-in limits without unnecessary raw-data complexity.
The result is a reliable data product for faster coordination, better planning, and clearly documented collaboration between grid and generation.
Trading needs economically relevant information, not arbitrary raw data. Curated data products provide curtailment, availability, and BESS-related information specifically for commercialization decisions.
This creates a controlled, compliant data flow between operations and trading that strengthens both operational relevance and economic decision-making.
A Data Lakehouse is not the business outcome. It is the decision infrastructure that connects data quality, insight, action, and measurable operational value.
Adjust the assumptions to explore the scale of value that better availability, curtailment recovery, and process automation could unlock.
Every stakeholder receives a governed view tailored to their responsibilities-without creating separate and contradictory versions of reality.
Portfolio-wide transparency, revenue at risk, investment priorities, and performance benchmarking.
Decision focus: value and riskLoss causes, availability, recurring incidents, and interventions prioritized by expected impact.
Decision focus: operational performanceApproved availability, forecast corridors, curtailment context, and genuinely available BESS flexibility.
Decision focus: commercial optimizationAutomated reconciliation, traceable KPIs, settlements, evidence, and faster month-end processes.
Decision focus: financial truthControlled access, audit trails, data sovereignty, policy enforcement, and documented information flows.
Decision focus: security and complianceExplore 34 concrete use cases for super-hybrid parks, operations, trading, BESS, finance, compliance, asset performance, and AI-powered automation.
Lost or non-injected energy is assigned across systems to a clear cause and financial impact.
In super-hybrid parks, it is often unclear why energy was not generated or injected into the grid. Technical outages, grid restrictions, negative market prices, curtailment, and data errors are documented in different systems.
The Energy Data Lakehouse time-aligns operational, grid, weather, market, and BESS data and assigns every lost MWh to a clear cause.
Every curtailment event is fully documented with trigger, setpoint, actual output, market price, restriction, and BESS status.
After a curtailment event, it is often unclear who triggered it, which setpoint applied, and whether the BESS could have absorbed the excess energy.
All curtailment events are connected with setpoint, actual output, trigger, market price, weather, grid restriction, and BESS status to form one complete record.
Trading receives an approved, quality-assured view of technically available output and forecast corridors.
Trading needs current information on available output. Unverified technical raw data can be misinterpreted or may be regulatory-sensitive.
The Data Lakehouse creates an approved data product with technically available output, forecast corridor, quality status, and validity period.
Market-relevant events are identified, assessed, documented, and only released to trading after approval.
Technical outages or output restrictions may constitute market-sensitive information. Detection, assessment, publication, and approval are often handled manually.
An automated workflow detects relevant events, calculates the affected capacity, and creates a complete information and decision chain.
Only required and approved grid restrictions are shared with generation and trading on a role-based basis.
Generation and trading need information on feed-in limits and grid restrictions. At the same time, sensitive or unnecessary grid data must not be shared without control.
The Data Lakehouse provides a curated grid-constraint data product with approved feed-in limits, time windows, ramps, and restriction status.
Market prices, generation, grid restrictions, SoC, SoH, and degradation are combined into one optimization foundation.
A battery storage system can support arbitrage, curtailment absorption, balancing energy, and grid services at the same time. Most systems, however, assess these objectives separately.
The Data Lakehouse combines market prices, weather forecasts, generation, SoC, SoH, grid restrictions, and degradation costs in one optimization foundation.
Trading receives the truly available flexibility corridor instead of only the current state of charge.
Trading often sees only the current state of charge. That alone does not show which power and energy volumes are actually available.
A curated BESS data product calculates the real flexibility corridor from SoC, SoH, temperature, BMS limits, grid restrictions, and reservations.
Each schedule is supplemented with the actual aging and warranty costs of the storage system.
A trading transaction may look profitable in the short term while causing substantial aging and warranty costs over time.
The Data Lakehouse evaluates every charge and discharge cycle using C-rate, temperature, SoC window, cycles, and expected lifetime.
Wind, PV, and BESS are jointly optimized against connection limits, market prices, and storage potential.
Wind, PV, and BESS share the same grid connection point. High simultaneous generation can create connection bottlenecks and avoidable curtailment.
The Data Lakehouse combines available generation, connection limits, BESS capacity, market prices, and forecasts for joint park optimization.
All data sources are harmonized on a common timeline with quality and lineage information.
SCADA, BMS, weather, and market data use different time resolutions, time zones, and aggregation logic.
All data is harmonized on a common timeline and enriched with quality and lineage information.
A central asset model connects all physical and commercial entities across systems.
Assets and measurements are named and structured differently in SCADA, OEM portals, CMMS, and trading systems.
A central asset model connects park, turbine, inverter, string, battery rack, grid connection point, and commercialization unit.
Data quality is continuously measured, visualized, and improved through traceable correction processes.
Data gaps, frozen sensors, time shifts, and incorrect units are often discovered only after reports or models produce incorrect results.
The Data Lakehouse continuously monitors completeness, plausibility, freshness, and consistency across all data sources.
Redundant signals and communication status distinguish telemetry failures from technical unavailability.
Missing telemetry is often incorrectly classified as technical unavailability.
The Data Lakehouse compares redundant signals, communication status, output, and asset state to classify the true cause.
KPI definitions are centrally versioned, standardized, and traceable down to the raw record.
KPIs such as technical availability, energy availability, CUF, or performance ratio are calculated differently across departments.
KPI definitions, formulas, filters, and data sources are centrally versioned and traceable down to the raw record.
Every forecast version is historized and can be compared with the actual outcome that followed.
Weather, generation, price, and curtailment forecasts are stored in different systems. Often only the latest version is retained.
The Data Lakehouse historizes every forecast with creation time, model version, validity period, and the actual value observed later.
Multiple models compete automatically; the best model is selected by park, weather situation, and horizon.
A forecasting model does not perform equally well for every park, season, and forecast horizon.
Multiple models are automatically compared against historical actuals. The best model is selected depending on park, weather situation, and horizon.
Schedule deviations are analyzed together with weather, outages, curtailment, BESS behavior, and grid restrictions.
Deviations between schedule and actual feed-in create costs. The cause often remains unclear.
Schedule, generation, weather, outages, curtailment, BESS behavior, and grid restrictions are analyzed together.
Technical risks and market prices are translated into a forward-looking revenue assessment.
Management and operations often only learn afterward which revenues were at risk due to outages, curtailment, or BESS limitations.
The Data Lakehouse combines technical risks, market prices, forecasts, and available output in a forward-looking revenue assessment.
Maintenance actions are prioritized not only technically, but also by expected financial risk.
Traditional predictive-maintenance systems prioritize technical anomalies but often ignore their economic significance.
Failure probability, expected damage, market price, lost generation, and maintenance windows are evaluated together.
AI identifies shared root causes across wind, PV, BESS, and grid infrastructure.
A shared fault at the grid connection point or power plant controller can trigger numerous alarms across wind, PV, and BESS at the same time.
AI analyzes temporal relationships across all assets and identifies shared primary causes instead of isolated follow-on alarms.
Thousands of individual alarms are grouped, prioritized, and condensed into actionable incidents.
During disturbances, operators may face hundreds or thousands of individual alarms.
Alarms are grouped by time and business context, follow-on alarms are filtered out, and a central incident is created.
An AI workflow prepares a complete maintenance work order from a detected anomaly.
Between detecting an anomaly and creating a maintenance order, there are often manual analyses and media breaks.
An AI workflow validates data quality, identifies the asset and component, assesses the risk, and creates a prepared work order.
Irradiance, temperature, string data, weather, and thermography distinguish PV loss causes.
Performance losses caused by soiling, shading, degradation, or string faults often look similar in total output.
Irradiance, module temperature, string data, precipitation, cleaning, and thermography are analyzed together.
Power curves are compared with weather, operating state, and peer turbines to detect underperformance early.
Deviations from the expected power curve may be caused by yaw errors, pitch issues, icing, wake effects, or faulty sensors.
Historical power, wind, temperature, and operational data are analyzed against reference curves and comparable assets.
Contract clauses are linked with actual asset events, response times, and availability.
Contract terms are stored in PDFs, while operational, alarm, and maintenance data is held in separate systems.
Contract clauses are connected with actual asset events, availability, response times, and service activities.
SCADA, meter, trading, balancing-group, and billing data are reconciled automatically.
SCADA, meter, trading, balancing-group, and billing data often do not fully match.
All energy volumes and prices are reconciled automatically. Differences receive a cause, amount, and processing status.
Contract logic, measurement data, market prices, and schedules are converted into an automated settlement process.
PPA settlements contain complex rules for delivered volumes, market prices, shortfalls, curtailment, and price thresholds.
The Data Lakehouse connects contract logic, measurement data, market prices, and schedules in an automated settlement process.
Security, communication, and operational data form an immutable incident timeline.
In OT or IT security incidents, technical impact, sequence of events, and affected systems must be reconstructed quickly.
Security, communication, and operational data are historized immutably and combined into a complete incident timeline.
An Analytics Chatbot answers operational questions using curated, quality-assured data products.
Business users currently have to gather information manually from SCADA, weather, market, CMMS, and BESS systems.
An Analytics Chatbot answers natural-language questions based on curated, quality-assured data products.
An AI agent automatically creates a daily operational picture of outages, risks, curtailments, and revenue at risk.
At the start of a shift, operators must compile disruptions, market conditions, BESS status, and open actions from multiple systems.
An AI agent automatically creates a daily briefing with outages, risks, data issues, curtailments, and revenue at risk.
Alarms, tickets, schedule changes, and open actions are handed over to the next shift in a structured format.
Important information is lost during shift changes or passed on in unstructured emails and logbooks.
An agent summarizes alarms, tickets, schedule changes, active limits, and open actions in a structured handover.
An AI agent detects data issues, evaluates substitute sources, and recommends traceable corrections.
Data issues often have to be searched for, assessed, and corrected manually.
An AI agent detects data gaps, compares substitute sources, recommends corrections, and documents the method and confidence score.
After an outage, a timeline is generated automatically from alarms, measurements, grid events, and market data.
After a park shutdown, reconstructing the cause, energy loss, and financial impact often takes several days.
The Data Lakehouse automatically creates an incident timeline from alarms, measurements, grid events, market prices, and maintenance information.
A coding assistant quickly creates new dashboards and business applications from approved data products.
New dashboards and business applications often require lengthy development and coordination cycles.
A coding assistant quickly creates new interfaces, dashboards, and operational apps based on approved data products.
With Data Lineage, you see not only the final KPI but every step on the path: from the curated KPI through harmonization and raw data back to the source.
The Analytics Chatbot connects natural-language business questions with the curated data products in your Energy Data Lakehouse. Business teams can immediately discuss causes, impacts, and options, including visualizations.
LLM required. In Cloud or onPrem with dedicated GPU Hardware
When trusted data products are pre-integrated, questions that previously required hours of manual consolidation can be answered in seconds.
EnerCode creates user-friendly interfaces for querying curated data products in a statistical context and presenting them visually. This turns data into usable business applications quickly.
EnerCode can be operated in the cloud or on-premises with certain hardware requirements (GPU).
Answer seven questions. The index indicates how relevant a centralized Energy Data Lakehouse is for your energy company.
An ascending delivery path that creates a secure foundation, demonstrates measurable value early, and evolves into an enterprise-wide data and AI platform.
Establish the Data Lakehouse foundation by connecting core data sources, integrating systems, and implementing secure data pipelines.
Build the first analytical use cases and dashboards to generate measurable business value quickly and demonstrate the platform's potential.
Extend the platform with AI workloads-leveraging GPU infrastructure for on-premises deployments or Agentic AI services in cloud environments.
Onboard additional departments, subsidiaries, and data domains while introducing new analytics and AI-driven business use cases.
Evolve the Data Lakehouse into an enterprise-wide data and AI platform through ongoing optimization, governance, automation, and long-term scalability.
An Energy Data Lakehouse can be operated in different ways: as a cloud service with watsonx.data, in your own cloud environment, or on-premises on Fusion HCI. Each model has clear strengths-the key is choosing the operating model that fits your IT, data, and transformation strategy.
Ideal for organizations that want to quickly establish a first productive use case, curated data products, or analytics capabilities.
Suitable for organizations that want cloud benefits while retaining more control over security, architecture, and governance.
For maximum data sovereignty, a flexible platform strategy, OpenShift applications, and GPU-accelerated AI training on scalable infrastructure.
Cloud-based Data Lakehouse with low initial infrastructure effort and rapid onboarding.
Operation in your own cloud environment with greater influence over architecture and security.
On-premises on Fusion HCI-a flexibly scalable, GPU-capable enterprise platform for the Data Lakehouse, OpenShift applications, and AI.
Particularly suitable for pilots, initial data products, and rapid implementation.
A strong compromise between speed and individual design freedom.
Requires more preparation, but creates a strong long-term platform foundation.
Less physical control, but high operational convenience.
Greater influence over infrastructure, security, and operating boundaries.
Full control over data, platform, network, and integration rules.
Highly scalable without procuring your own hardware.
Flexibly scalable, depending strongly on the selected cloud operating model.
Flexibly scalable within the Fusion HCI strategy-not only for the Lakehouse, but also for additional platform workloads.
Primarily focused on Data-Lakehouse-related services and data processing.
Broader use is possible, depending on cloud architecture and operational approvals.
OpenShift can also run applications, services, and platform components-so this is not a Data-Lakehouse-only environment.
Well suited for AI-related use; GPU availability depends on the cloud setup.
Also feasible depending on the architecture, but more dependent on the individual environment.
GPU hardware can be used directly to train and run AI models on the platform.
Fast start, low entry barrier, short time to value.
Greater design freedom while retaining high cloud flexibility.
Maximum sovereignty, a platform strategy for additional applications, and strong future readiness for AI and energy use cases.
Less physical data sovereignty and dependency on the cloud framework.
Greater operational and architectural responsibility than with a fully managed service.
Higher investment and planning effort, plus the need for sound platform governance and capacity management.
Clear ownership is required for KPI definitions, data quality, access decisions, and the lifecycle of every data product.
Owns the data domain, approves access principles, and determines how information may be shared and used.
Owns definition, quality, freshness, users, documentation, and the roadmap of a curated data product.
Operates architecture, pipelines, security controls, observability, reliability, and the technical product lifecycle.
Uses approved data for reporting, trading, analytics, AI, applications, or external services within defined policies.
An anonymized implementation blueprint shows how Beyond Tech structures the journey from first connection to scalable business value-without requiring a disruptive replacement of the existing system landscape.
Wind, PV, and BESS data are connected with operational, weather, market, maintenance, and asset-master information. The first MVP establishes one trusted data product and a management-ready analytical view.
This is an illustrative delivery pattern, not a claim about a named customer or guaranteed project result. Scope and outcomes depend on the selected data sources and business use case.
A Data Lakehouse delivers its full value only when technology, energy-industry expertise, and business processes work together seamlessly.
Beyond Tech supports energy companies from the first data strategy through productive implementation-with many years of genuine experience in the renewable-energy sector and a deep understanding of wind, PV, BESS, and hybrid-park operations.
Our interdisciplinary team of data architects, software engineers, energy experts, and project managers develops a tailored Energy Data Lakehouse aligned with your existing systems, data sources, and business processes.
Instead of a standard product, you receive a platform that addresses today's challenges and establishes the foundation for future AI, analytics, and automation applications.
As an IBM Silver Partner, we combine IBM watsonx.data, OpenShift, and IBM Fusion HCI with proven delivery experience in the energy industry.
Watson and Maximo Application Suite certified, with a focus on structured delivery and enterprise implementation.
Maximo Renewables and Maximo Application Suite certified, connecting project governance with energy-sector execution.
IREB CPRE Requirements Engineering and ITIL certified, translating business needs into scalable solution architectures.
IREB CPRE Requirements Engineering and ISTQB certified, supporting reliable applications and high-quality operations.
Register for a personalized demo of your Energy Data Lakehouse and receive exclusive access to our TwoPager and a potential target-architecture roadmap afterward.
Complete the form to schedule your personalized demo. After confirmation, you will receive the TwoPager and appointment details.
No. The Energy Data Lakehouse connects and governs the existing landscape. Specialist systems remain in place while the Lakehouse creates shared history, quality, context, and reusable data products.
Yes. It can be deployed on-premises, in a private cloud, or as a cloud service. The operating model is selected according to sovereignty, latency, security, scalability, and internal operating capabilities.
Ownership is defined contractually and organizationally. A governance model should identify data owners, data-product owners, platform responsibilities, and approved consumers before productive rollout.
Data ingestion can be designed through segmented networks, controlled gateways, read-only connections, secure landing zones, and policy-based interfaces. The exact architecture must be aligned with the customer's security and OT requirements.
The platform supports controlled access, historization, lineage, versioning, evidence chains, and governed data products. Legal and regulatory compliance still requires customer-specific processes, responsibilities, and review.
Yes. Core ingestion, Data Lakehouse, BI, SQL analytics, governance, and many automation use cases do not require dedicated GPUs. GPU capacity becomes relevant for selected model training and advanced on-premises AI workloads.
The timeline depends on source accessibility, data quality, security approvals, and scope. A strong MVP is deliberately narrow: connect priority sources, establish one data product, and prove one measurable business outcome.
Successful delivery typically involves a business owner, data and system experts, IT and security stakeholders, and representatives from the consuming function such as operations, trading, or controlling.
Use open table formats, documented interfaces, portable data products, clear ownership, and standardized APIs. Architecture decisions should separate the data foundation from individual consumption tools wherever practical.
Definitions, formulas, filters, data sources, quality rules, owners, and versions are documented centrally. Data lineage links each KPI back to its transformations and source records.
Yes. The Consumption Layer and API Gateway can enforce authentication, authorization, role-based access, field-level policies, rate limits, monitoring, and audit trails for selected data products.
A Data Lakehouse combines flexible storage of raw and semi-structured data with governed tables, versioning, high-performance analytics, and curated business products-without forcing all use cases into one rigid warehouse model.