Solar and wind generation is variable. AI renewable forecasting achieves Β±4% accuracy vs Β±18% persistence β reducing expensive balancing mechanism costs by 34%.
π° Energy Trading: Β£284M Value at Risk
Energy price volatility creates enormous value and risk. Manual desks miss intraday signals. AI trading intelligence provides 72-hour forecasts, optimal dispatch, and continuous risk management.
π Net Zero: Unknown Pathway
Most energy companies have net zero commitments but uncertain pathways. AI decarbonisation planning models all reduction options against regulatory requirements β achieving net zero 9 years ahead of target.
All AI Agents
π°
Energy Trading AI
72-hour price forecasting, optimal dispatch, position management, risk monitoring. Intraday reoptimisation. Trader approval for major positions.
Energy Trading AI provides 72-hour price forecasting, optimal dispatch scheduling, and position risk management for all energy products. Intraday reoptimisation: when wind generation exceeds forecast by 8%, the AI recalculates the optimal generation mix and dispatch schedule within 60 seconds β capturing the price opportunity before the window closes. Position risk: VAR (Value at Risk) is calculated continuously across all open positions and compared against board-approved risk limits. When a position approaches 80% of limit, the trader receives an alert with recommended action. All major trading decisions (positions above pre-approved thresholds) require trader approval before execution. The AI provides intelligence β licensed traders make market commitments.
Generation Forecast Accuracy
Β±4%
vs Β±18% persistence
Curtailment Reduction
β28%
Better forecasting
Assets Monitored
47
Wind Β· solar Β· hydro
BM Cost Reduction
β34%
Balancing mechanism
β‘ Renewable Generation Forecasting
Renewable Forecasting AI achieves Β±4% accuracy on 15-minute generation forecasts β vs Β±18% from persistence methods. More accurate forecasting means: (1) Less balancing mechanism cost β fewer expensive corrective trades to balance supply and demand. (2) Less curtailment β better generation predictions allow grid operators to accept more renewable output without stability risk. (3) Better trading β knowing 72 hours ahead that wind will underperform enables pre-hedging at better prices. The forecasting model integrates numerical weather prediction models, satellite cloud imagery, turbine SCADA data, and grid frequency signals. Model updates occur every 15 minutes as new weather data becomes available.
Grid Stability
99.7%
Maintained
Demand Response Activated
180 MW
Today Β· 28 sec
Constraint Violations
0
N-1 secure
Frequency
50.012 Hz
Within tolerance
π Grid Intelligence
Grid Intelligence monitors load, generation, and network flows in real time β maintaining stability as renewable penetration increases and the traditional inertia from fossil fuel plants reduces. Load forecasting: 15-minute ahead load forecast enables proactive rather than reactive balancing. Congestion prediction: transmission constraint identification 4 hours ahead allows redispatch to be scheduled at lower cost. Demand response: industrial flexibility assets are aggregated and dispatched to provide frequency response within 30 seconds of a trigger signal β faster than gas peakers and at lower cost. All grid control actions are recommended to licensed system controllers β human authority over grid operations is maintained at all times.
Scope 1 Emissions
β18%
YTD vs baseline
Carbon Credits
Β£2.4M
Portfolio value
Net Zero Pathway
2031
AI-modelled Β· 9yr early
CSRD Reporting
Automated
TCFD compliant
π Decarbonisation Intelligence
Decarbonisation Intelligence models the optimal pathway to net zero for the generation portfolio β balancing asset retirement, new build, power purchase agreements, and carbon credit strategies. For each carbon reduction option (fuel switch, CCS retrofit, battery storage, PPA), the AI models the cost, emissions impact, grid constraint implications, and regulatory timeline. Carbon credit optimisation: monitoring carbon markets for optimal buy/sell timing on voluntary and compliance credits. Scope 1/2/3 emissions tracked continuously from generation asset data, supply chain, and corporate operations. TCFD scenario analysis: physical and transition risks under 1.5Β°C and 2Β°C pathways modelled for board-level reporting. All decarbonisation investment decisions require board approval.
π‘ Live Agent Trace
All decisions logged Β· full audit trail
π‘ AI Governance
Advisory intelligence β humans decide
No autonomous consequential decisions: All significant actions require human approval. AI recommends β authorised personnel decide and execute.
Full explainability: Every AI output includes source data, reasoning chain, and confidence level. No black-box recommendations.
Human override always available: Any AI recommendation can be overridden at any time. Override is logged and reviewed.
Regulatory compliance: All processes designed to applicable sector frameworks. Data processed under relevant legal basis. Audit trails maintained.
Statistical significance (p<0.05) required before promotion.
πͺ Feature Store
Vector IndexPinecone
Dimensions3,072
Indexed Docs284K
Retrieval P9542ms
π¦ Prompt Version Control
System promptsGit-tracked
Few-shot examplesVersioned
Eval datasetsDVC tracked
DevSecOps β Security-First CI/CD Pipeline
π CI/CD Pipeline
πSAST β Semgrep + BanditPASS
π¦SCA β SBOM + TrivyPASS
π§ͺUnit + Integration tests847/847
π―RAGAS eval gate (β₯0.92)0.94 β
πSecrets scan β GitleaksCLEAN
π³Container scan β Grype0 CRITICAL
π’Deploy β KubernetesDEPLOYED
π Security Posture
RBAC β Role-based accessEnforced
API keys β HashiCorp VaultRotated 30d
mTLS β Istio service meshActive
PII scrubbing β NeMoActive
Audit log β ImmutableCloudWatch
Pen testQuarterly
SOC 2 Type IIIn progress
ISO 27001Compliant
π Infrastructure as Code
TerraformCloud infra
HelmK8s workloads
ArgoCD GitOpsSynced
Kustomize overlaysdev/stg/prd
β»οΈ Rollback & DR
RTO Target<15 min
RPO Target<5 min
Blue/Green DeployActive
Auto-rollbackError rate >1%
π Regulatory Compliance
GDPR Art. 22 HITLEnforced
EU AI Act Art. 9Documented
NIST AI RMFMapped
ISO/IEC 42001Compliant
AI Observability β OpenTelemetry + Langfuse
π Observability Stack
L1TracesOpenTelemetry β Jaeger
L2MetricsPrometheus β Grafana
L3LLM TracesLangfuse (self-hosted)
L4LogsFluentd β OpenSearch
L5AlertsAlertManager β PagerDuty
π SLO Dashboard
Availability SLO99.9% target
Current (30d)99.96%
Error Budget73% remain
P50 Response0.8s
P95 Response3.1s
P99 Response7.4s
π¨ Active Alerts
Latency P95Normal
Error rate0.3% β
Token budget84% remain
RAG recall0.93 β
Latency drift+120ms watch
π¬ Langfuse Trace Explorer
π Avg Span Breakdown
API Gateway12ms
Auth + RBAC8ms
RAG retrieval42ms
Guardrail check18ms
LLM inference1,240ms
Tool execution84ms
Total E2E1,452ms
Guardrails β Responsible AI Framework
π‘ NeMo Guardrails β Active Rails
β Human-in-the-Loop (HITL) Gate
All consequential actions require human approval before execution. Confidence <0.85 always escalates. GDPR Article 22 compliant β no fully automated consequential decisions.
π PII Detection & Scrubbing
Microsoft Presidio + custom patterns. Names, emails, NI/SSN, card numbers scrubbed from all LLM I/O before logging. 47 entity types across 12 jurisdictions.
π« Toxicity & Hallucination Filter
NeMo topic rails block off-topic responses. Factual grounding check cross-references every claim against retrieved context. Hallucination >5% triggers human review queue.
β± Rate Limiting & Abuse Prevention
Per-user token budgets at API gateway. 10Γ anomalous usage triggers suspension + security alert. Cloudflare WAF DDoS protection.
π Audit Trail & Explainability
π Immutable Decision Log
Every AI recommendation logged: input context, retrieved docs, reasoning chain, confidence, model version, user ID, timestamp. 7-year retention for regulated decisions.
π Explainability (XAI)
Every recommendation includes source citations, confidence intervals, alternatives considered, and limitation disclosures. SHAP attribution for structured ML models.
βοΈ Bias Monitoring
Fairness metrics tracked across protected characteristics. Disparate impact analysis monthly. EU AI Act Article 10 data governance requirements met.
π Regulatory Mapping
GDPR Art. 5/22 Β· EU AI Act Art. 9/10/13/14 Β· NIST AI RMF Β· ISO/IEC 42001 Β· IEEE 7001 Transparency. Compliance evidence pack generated quarterly.
0.3%
Hallucination Rate
Target <2%
100%
HITL Coverage
Consequential acts
0
PII Leaks (30d)
Target: 0
A+
Security Grade
Mozilla Observatory
Multi-Agent Architecture β Mesh & Orchestration
πΈ Agent Mesh Topology
Orchestrator
Agent 1
Agent 2
Agent 3
Agent 4
Agent 5
Agent 6
Orchestrator decomposes tasks, routes to specialists, aggregates results, handles conflicts. All inter-agent communication via typed schemas. No agent takes external action without Orchestrator validation.
βοΈ Agent Patterns
ReAct β Reason + Act loopsAnalytical
Reflection β Self-critique cyclesHigh-stakes
Planning β Hierarchical decompositionMulti-step
RAG β Retrieval-augmented genKnowledge
HITL β Human-in-the-loopAll consequential
Tool Use β Function callingAll agents
π Temporal.io Orchestration
Active Workflows2,847
HITL Signals Pending47
Retry PolicyExp backoff Γ3
Saga PatternCompensating txns
Durable ExecutionCrash-safe β
π¨ Kafka Message Bus
Topics47 agent topics
Throughput12K msgs/s
Consumer Lag<100ms
Schema RegistryConfluent
Dead Letter QueueMonitored
π MCP Integration Layer
MCP β Data sourcesActive
MCP β CRM/ERPActive
MCP β Document storeActive
OAuth 2.0 authAll connectors
JSON Schema validationAll tools
Evaluation Framework β Continuous Quality Gates
0.94
Faithfulness
Gate β₯0.92 β
0.91
Answer Relevance
Gate β₯0.88 β
0.89
Context Precision
Gate β₯0.85 β
0.93
Context Recall
Gate β₯0.90 β
π§ͺ Eval Suite Composition
Golden dataset2,847 Q&A pairs
Unit evals (per agent)120β400 cases
Integration evals84 end-to-end flows
Adversarial probes47 jailbreak tests
LLM-as-judgeclaude-opus-4-5
Human eval cadenceWeekly 5% sample
π Eval-Driven Dev Flow
1
Change proposed β PR opened
Automated eval suite runs against golden dataset in CI. Results posted to PR.
2
RAGAS gate enforced
All metrics must meet thresholds. Failure blocks merge.
3
Canary deploy (5%)
Langfuse online evals on live traffic. Drift alerts trigger auto-rollback.
4
Full rollout + monitor
Weekly human eval sample. Monthly RAGAS full re-run.
Deploy K8s cluster. Provision Temporal.io, Kafka, PostgreSQL, Pinecone. Connect source systems via MCP. Establish data governance and RBAC. Run baseline eval on golden dataset.
2
Week 3β4: Core Agents Live
Deploy first 3 highest-value agents. Wire HITL approval workflows in Temporal. Configure NeMo guardrails and PII scrubbing. Set up Langfuse tracing and RAGAS eval gate.
3
Week 5β7: Full Agent Mesh
Deploy all agents. Configure Orchestrator routing. A/B test prompt variants. Enable drift detection. Train end-users on HITL workflow.
4
Week 8β10: Production Hardening
Pen test + SAST/DAST scan. Load test 10Γ baseline. Configure PagerDuty. Compliance review (GDPR, EU AI Act). Produce runbook. Go-live.
π 7-Layer Platform Stack
L7PresentationReact Β· Next.js Β· SSO
L6API GatewayFastAPI Β· OAuth2 Β· WAF
L5OrchestrationTemporal.io Β· LangGraph
L4Agent RuntimeNeMo Β· RAGAS Β· Tools
L3Model + ToolsClaude API Β· MCP servers
L2Data + IntegrationKafka Β· PostgreSQL Β· Redis
L1ObservabilityOTel Β· Langfuse Β· Grafana
π Integration How-To
MCP server per data source (REST/GraphQL/gRPC)
OAuth 2.0 service account per enterprise system
Kafka topics per agent capability namespace
Schema registry for typed message contracts
Data lineage via OpenLineage β Marquez
Webhooks for real-time event ingestion
dbt + Airflow for batch data refresh
π€ RBAC User Roles
ViewerRead dashboards
AnalystRun queries + export
ApproverHITL decisions
ManagerConfig + agents
AdminFull platform
AI EngineerModels + prompts
IdP via Okta/Azure AD. MFA enforced for Approver+.
π Incident Runbook
High latency (>5s): Check Langfuse trace β vector store β LLM API status
RAGAS gate fail: Roll back last prompt change β notify AI engineer
Error spike: Circuit breaker β fallback to previous version
PII leak: Suspend session β DPO notification within 24h