All expertise
ARTIFICIAL INTELLIGENCE

AI consulting.

Turn AI potential into a capability people can use.

OUR PERSPECTIVE

Every AI capability must stand up to scrutiny on business value and operating accountability.

Advances in AI are widening the opportunities available to energy businesses, but fluent answers in a demonstration are not sufficient evidence for real business decisions. Knowledge assistance, maintenance support, trading research and production control differ substantially in their evidence requirements and the consequences of failure. ZHICE starts with specific tasks and responsibility boundaries, bringing together a portfolio of use cases, knowledge engineering, evaluation and human–AI collaboration. We design pilots as validation exercises that can inform investment decisions. Alongside whether a model can complete a task, we examine whether people will use it, how outputs will be reviewed, how errors will be detected, and whether cost and accountability can remain manageable as use expands.

THE DECISION CONTEXT

Understand the relationships.
Then choose the tools.

Applying AI in an energy business begins by relating technical possibilities to specific tasks. Policy retrieval, maintenance preparation, trading research and production control have different requirements for accuracy, timeliness and authority to act. ZHICE examines the work, its evidence sources and accountability for consequences to identify suitable assistance and judgments that should remain with people. Use-case planning therefore goes beyond value and difficulty: it checks whether results can be evaluated, people will adopt the application and the organization can maintain ownership. A pilot becomes a validation activity capable of supporting a clear decision.

Moving from trial to operation requires knowledge, evaluation and governance capabilities together. ZHICE brings knowledge versions, tool permissions, human confirmation, exception handling and cost records into one design, distinguishing answer quality, task outcomes and the effects of actual use. Each model or knowledge update should check for regressions in critical tasks; each expansion should examine differences in new roles and uses. The aim is a sustainable basis for investment and operating judgments, so the business knows when to proceed, when to restrict use and when to exit.

THE ZHICE APPROACH

The ZHICE Trusted AI Value Method

Five stages—task analysis, portfolio choices, controlled design, evidence-based validation and scaled operations—connect business investment decisions with governance across the AI lifecycle. Drawing on published management research, the NIST risk management framework and agent engineering practice, the method brings evaluation datasets, permissions, human review and exit mechanisms into the design stage. Task requirements guide model selection; validation evidence determines deployment scope. Each capability upgrade prompts a fresh review of business outcomes and risk boundaries.

ZHICE / VALUE TO EXECUTIONFive stages. Evidence to move forward.
01

Analyze tasks

Whose work will AI change, and at which step?

02

Choose use cases

Which use cases merit investment, and which should wait?

03

Design controls

Where should capabilities and permissions sit?

04

Validate with evidence

What evidence supports launch or a wider rollout?

05

Operate at scale

How will performance and accountability hold as use expands?

Across every stageBusiness valueAccountabilityData and evidenceRisk boundaries
Operating results revisit the original judgement and inform the next allocation of resources and actions.
See how each stage worksCore questions, methods, deliverables and stage decisions
ANALYTICAL FRAMEWORK

Exhibit 1 | Weigh evidence readiness against the consequences of action

Priority depends on whether a task can be evaluated and failure controlled. High potential value does not automatically justify greater autonomy in a high-impact use case.

Swipe to explore the complete figure

Exhibit 1 | Weigh evidence readiness against the consequences of action01Build evidence; retainhuman judgment02Proceed with stagedauthorization03Explore with a clearlearning goal04Validate actual valuefirstTask evidence and validation readinessBusiness impact and authority to actLowHighHighLowPositions reflect decision conditions, not quantified scores
01

Build evidence; retain human judgmentBusiness impact is high but validation conditions are insufficient. Narrow the task, strengthen knowledge and evaluation, and define failure consequences. Demonstration success does not replace a launch assessment.

02

Proceed with staged authorizationValidation conditions are relatively strong, but action consequences remain material. Combine professional review, required approvals and a limited scope, checking accountability and recovery arrangements throughout.

03

Explore with a clear learning goalAction consequences are lower, but evidence is weak. Use small experiments to clarify task and knowledge needs, record failures and avoid premature commitments to scale.

04

Validate actual value firstTask boundaries and evaluation conditions are clearer. Conduct comparisons and controlled trials while checking review effort, adoption and full costs to establish a basis for expansion.

An original ZHICE qualitative framework. Evidence readiness increases from left to right; impact increases from bottom to top. Positions express decision approaches, not measured scores or expected investment returns.
OUR PRACTICE

Explore the critical questions.

Each practice examines diagnosis, solution design, implementation and delivery requirements in detail.

EVIDENCE & ACCEPTANCE

Make deliverables useful to decisions.

Go beyond document names to define purpose, evidence and verification. Agree the work scope against actual conditions at project initiation.

DECISION TOOL

Trusted AI value: turn capability assessments into stage decisions

Swipe to explore the complete table

Stage and scopeCore outputsEvidence for validationLeadership decision
Analyze tasks: Define input, judgment, action and responsibility boundaries around specific roles and work outcomes.Produce the task map, baseline and problem classification, distinguishing suitable assistance from conditions that first need improvement.Provide representative tasks, operating records and role confirmation, specifying completion states, quality requirements and known exceptions.Confirm tasks worth further study, responsibilities that cannot be transferred to the system and foundational work still needed.
Choose use cases: Compare value, implementation readiness, evaluation capability and consequences to allocate adjustable validation funding.Produce the use-case portfolio, alternatives and pilot agreement, specifying budgets, owners and conditions to continue or exit.Provide value hypotheses, dependencies and evidence gaps, explaining priorities and the choice of technology.Approve initial validation scope and resources, commission additional evidence for unready cases and defer unsuitable directions.
Design controls: Connect knowledge, tasks and authorization within explicit human–AI collaboration and approval boundaries.Produce application architecture, knowledge specifications and a permissions matrix, with human review, exceptions and takeover practices.Provide knowledge provenance, tool behaviors and scenario cases demonstrating that important information and actions can be checked.Determine whether experimental design and accountability are sufficient, and proceed to controlled validation or add necessary controls.
Validate with evidence: Examine content, actions, adoption and costs together, defining evidence sufficient for a limited launch.Produce evaluation findings, failure cases and launch recommendations, distinguishing conditions met, restricted uses and required remediation.Provide task results, key actions and expert judgments, comparing human review, rework and operating costs.Use pre-agreed standards to launch, limit use or continue remediation, recording residual risks and conditions for later expansion.
Operate at scale: Manage changes in knowledge, models, tasks and roles, feeding actual experience into renewed validation.Establish operating ownership, change regression and value reviews, defining improvement, expansion, downgrade and exit arrangements.Provide incident handling, repair verification, adoption differences and cost records, demonstrating evidence behind scope changes.Decide whether to continue investment or adjust scope, restrict or pause where needed, and retain takeover and recovery arrangements.
This table describes consulting work and decision evidence. It does not promise returns or replace professional, safety or investment approvals. Launch and expansion require judgments specific to the use, site conditions and applicable requirements.
WHAT THE WORK LEAVES BEHIND

Leave behind mechanisms that work.

01

AI use-case portfolio, priorities, validation budget and exit conditions.

Benefit assumptions have a basis and critical prerequisites are confirmed.

02

Application and knowledge architecture, authorization matrix, human review and exception handling design.

High-impact actions have explicit approval mechanisms, and knowledge and tool access boundaries can be checked.

03

Evaluation findings, failure cases, launch recommendations and residual risk statement.

Previously agreed task standards are met, with explicit decisions on unresolved issues.

04

AI product operating practices, value reviews, capability upgrades and exit arrangements.

Ownership remains active, exceptions can be contained, and benefits and costs can be reviewed.

RESEARCH FOUNDATIONS

Research brought into
consulting practice.

We translate management research and technological advances into working methods for energy businesses. The frameworks below are ZHICE's synthesis of the research and industry questions.

NISTAI Risk Management Framework (AI RMF 1.0) · 2023-01-26

Application in the ZHICE approachApply trustworthiness and risk management across AI design, development, use and evaluation, specifying intended use, accountability and continuing monitoring.

Scope and limitationsA voluntary risk management framework, not proof of legal compliance for projects in China. Material described as a concept note on the 2026 critical infrastructure Profile page is not treated as a formally released standard.

Read the original research
NISTArtificial Intelligence Risk Management Framework: Generative Artificial Intelligence Profile · 2024-07-26

Application in the ZHICE approachIdentify risks specific to generative AI and incorporate trustworthy knowledge, information security, human review and operational feedback into application design.

Scope and limitationsA cross-industry risk guide. Controls must be selected for the task, data, people and system environment rather than applied mechanically.

Read the original research
Anthropic EngineeringBuilding effective agents · 2024-12-19

Application in the ZHICE approachDistinguish predefined workflows from agents in which models dynamically choose steps, keeping architecture complexity proportionate to task needs.

Scope and limitationsAn engineering practice article, not an industry standard. The official site notes that some tool information has changed; only its architecture selection principles are used here.

Read the original research
Anthropic EngineeringDemystifying evals for AI agents · 2026-01-09

Application in the ZHICE approachEvaluate task outcomes, action records and performance across repeated runs, combining automated checks, model-based assessment and human judgment.

Scope and limitationsGeneral agent engineering experience cannot replace on-site validation, safety assessment or professional judgment in the energy industry.

Read the original research
Erik Brynjolfsson / Danielle Li / Lindsey Raymond · The Quarterly Journal of EconomicsGenerative AI at Work · 2025-02-04

Application in the ZHICE approachDraw on perspectives on differences in employee experience and learning effects to test AI outcomes by role, proficiency and task difficulty.

Scope and limitationsThis reference uses the final paper published in QJE in 2025. The study concerns customer support workers at one company; its average productivity change is not extrapolated into benefits for energy businesses.

Read the original research