Specific solution · AI + Machine Learning

Agentic AI systems

Give AI agents useful work—and clear limits.

EINO builds supervised AI agents that plan tasks, use approved tools, coordinate work across systems, and stop for human decisions when the risk requires it. Every action can be traced, tested, and owned.

Supervised agent run

Approval boundary active
Scoped requestSupervisorApproval gateApproved tools

Evidence framework

Define proof before production.

Baselines and targets are agreed for each engagement. These dimensions shape what the team evaluates; they are not promised historical results.

Useful

Does it complete the right task?

Test the whole run with representative requests, systems, users, and exceptions.

  • Task completion
  • Cycle time
  • Human effort
  • Handoff quality

Trustworthy

Does it stay within authority?

Check tool choice, policy rules, approval paths, and whether the agent stops safely.

  • Tool accuracy
  • Policy adherence
  • Approval routing
  • Safe-stop quality

Operable

Can teams see and control it?

Track every run, cost, failure, recovery, and change once the agent is in service.

  • Trace coverage
  • Cost per run
  • Recovery rate
  • Service reliability

Solution portfolio

Four ways agents can coordinate real work.

The right pattern depends on the task: one agent may run a bounded process, while complex work may need orchestration, feedback, or several specialist agents.

IPA

Intelligent Process Automation

Run repeatable processes across systems with clear exception paths.

Agents can gather context, choose an approved action, update business systems, and route uncertain or high-impact cases to people.

Technical capability

  • Workflow planning + execution
  • Approved tool + API use
  • Rules + decision policies
  • Exception handling
  • Human approval steps

Business application

  • Financial operations
  • Supply chain operations
  • Human resources
  • Compliance monitoring
  • Back-office service work

Published results + market benchmarks

External research and case-study benchmarks. Results vary by use case.

40%Source 1

lower HR operating costs

IBM AskHR result over four years
94%Source 1

common-question containment

IBM AskHR company case study
75%Source 1

fewer support tickets

Reported change since 2016
11.5M+Source 1

employee interactions in one year

IBM AskHR volume in 2024
ORC

Advanced Task Orchestration

Coordinate multi-step work, dependencies, tools, and handoffs.

An orchestration agent can break work into steps, manage priorities and dependencies, call the right systems, and recover or escalate when a step fails.

Technical capability

  • Task planning + decomposition
  • Dynamic prioritization
  • Dependency management
  • Tool + resource selection
  • Failure recovery + escalation

Business application

  • Project coordination
  • Data pipeline operations
  • Customer journey orchestration
  • IT operations
  • Research workflows

Published results + market benchmarks

External research and case-study benchmarks. Results vary by use case.

3–4 hrsSource 2

to deploy an agent

Down from months in a Google Cloud case
15 minSource 2

for audience research

Down from two days in the same case
10 minSource 2

for a contract negotiation plan

Custom-agent workflow case result
2–3 daysSource 2

employee onboarding time

Down from weeks in the same case
ADP

Adaptive Learning Systems

Improve decisions from observed outcomes without losing release control.

Adaptive systems use feedback and changing operating signals to update recommendations or control policies. Testing and staged release keep learning separate from uncontrolled change.

Technical capability

  • Outcome + feedback capture
  • Performance evaluation
  • Environment + drift detection
  • Controlled retraining
  • Simulation + staged release

Business application

  • Customer behavior prediction
  • Market intelligence
  • Risk management
  • Quality assurance
  • Industrial control

Published results + market benchmarks

External research and case-study benchmarks. Results vary by use case.

Up to 40%Source 3

less cooling energy

Google data-centre ML deployment
15%Source 3

less overall PUE overhead

Reported in the same live deployment
≈20%Source 4

higher wind-energy value

Google DeepMind forecasting program
Up to 30%Source 4

less cooling electricity

Later Google collaboration summary
MAS

Multi-Agent Coordination

Assign specialist agents to work in parallel under one supervisor.

A supervisor agent can divide work, give specialist agents distinct tools and context, resolve dependencies, and combine their results into one reviewable outcome.

Technical capability

  • Supervisor + specialist roles
  • Task delegation
  • Shared state + progress tracking
  • Conflict + dependency handling
  • Result synthesis + review

Business application

  • Research + development
  • Manufacturing optimization
  • Security operations
  • Trading operations
  • Complex enterprise analysis

Published results + market benchmarks

External research and case-study benchmarks. Results vary by use case.

90.2%Source 5

better research-eval performance

Multi-agent vs. single-agent internal evaluation
Up to 90%Source 5

shorter complex research time

Parallel subagent + tool execution
95%Source 5

of performance variance explained

Tokens, tool calls, and model choice in one evaluation
≈15×Source 5

more tokens than chat

Published multi-agent cost tradeoff
View research sources (5)

These are external benchmarks, estimates, and published case-study results—not guaranteed EINO outcomes. Results depend on scope, system conditions, implementation, and operating context.

  1. 01

    IBM · 2025 · Company case study

    Need optimized HR support? AskHR

    IBM reports company-wide cost, containment, ticket-volume, and interaction results for its internal HR agent. Results reflect one long-running implementation.

    Read source
  2. 02

    Google Cloud · 2026 · Customer case study

    Hallam speeds up customer discoverability with a systematic AI strategy

    A Google Cloud customer case reporting deployment, research, contract-planning, and employee-onboarding times for custom agents.

    Read source
  3. 03

    Google DeepMind · 2016 · Production research report

    DeepMind AI reduces Google data-centre cooling bill by 40%

    Results from a live Google data-centre deployment using neural networks to recommend operating actions within defined constraints.

    Read source
  4. 04

    Google DeepMind · 2019 · Applied research summary

    Advanced machine learning helps Play Store users discover personalized apps

    A summary of applied ML programs, including data-centre cooling and wind-energy forecasting results.

    Read source
  5. 05

    Anthropic · 2025 · Engineering report

    How we built our multi-agent research system

    Internal evaluation results and operating tradeoffs from a production multi-agent research system; the benchmark is not a general business-performance claim.

    Read source

Operating contexts

The constraints shape the system.

Information sensitivity, decision authority, service expectations, and review obligations change what a responsible implementation requires.

FIN

Financial services

Agents may prepare research, reconcile records, or route exceptions, but transaction limits, approvals, and full action histories must stay explicit.

  • Operations
  • Research
  • Risk review
GOV

Government + public sector

Casework and service operations need permission-aware tools, clear reasons for actions, accessible review, and retained human authority.

  • Case management
  • Citizen services
  • Document workflows
OPS

Enterprise + industrial operations

Agents working across supply chains, IT, or physical operations need safe states, reliable system interfaces, and fast human escalation.

  • Supply chain
  • IT operations
  • Industrial workflows

Enterprise architecture

An agent needs a control system around it.

Production agentic AI connects requests, plans, business tools, approvals, and action records. The model is one part of that operating path.

01

Request + context

A user, event, or system starts a run with identity, task scope, business context, and operating limits.

02

Plan + assign

The agent breaks the goal into steps, checks dependencies, and assigns work to tools or specialist agents.

03

Retrieve + use tools

Permission-aware knowledge, APIs, and business applications provide the evidence and actions needed for each step.

04

Validate + approve

Policy checks, evaluations, and human review test proposed actions before consequential work proceeds.

05

Act + record

Accepted actions enter the workflow with a complete trace, outcome signals, and a safe path for recovery.

Controls that cross the system

  • Identity + least privilege
  • Action logs + traces
  • Evaluations + policy
  • Budgets + rate limits
  • Human authority

Deployment patterns

  • Managed agent platforms
  • Private cloud
  • Hybrid
  • On-premises

Selected around data, integration, control, performance, and ownership requirements.

Agent design

Give agents only the autonomy the task can support.

Start with a narrow task and limited tools. Add independent action or more agents only when testing shows a clear benefit and the controls can support it.

Human authority by design

Approval rules, spending limits, safe stops, and named owners keep consequential decisions with accountable people.

  1. 01

    Constrain

    Workflow + rules first

    Use a known process, fixed tools, and explicit decision rules when the task does not need open-ended planning.

  2. 02

    Assist

    Agent proposes, person decides

    Let the agent prepare plans or actions while an accountable person reviews every consequential step.

  3. 03

    Act

    Bounded independent action

    Allow reversible, low-risk actions only after the task passes evaluations and failure paths are proven.

  4. 04

    Coordinate

    Supervisor + specialist agents

    Add multiple agents when work is genuinely parallel, roles are distinct, and the performance gain justifies added cost and complexity.

Delivery path

From a bounded task to an operated agent.

Five steps connect the business objective, permitted actions, test evidence, and operational ownership before autonomy expands.

  1. 01Frame

    What task should the agent own?

    Choose the users, trigger, desired outcome, current baseline, and actions that stay out of scope.

    Task charter + boundaries
  2. 02Shape

    What may it see and do?

    Map tools, data access, decision rights, approvals, safe stops, and named operating owners.

    Agent + control design
  3. 03Make

    What is the smallest complete run?

    Build one end-to-end task with real systems, traces, review points, and recoverable actions.

    Supervised working agent
  4. 04Prove

    Does it act correctly under pressure?

    Test representative work, tool failures, policy conflicts, ambiguous requests, cost, and escalation quality.

    Evaluation + release decision
  5. 05Operate

    How will autonomy stay controlled?

    Monitor runs, investigate failures, manage changes, review permissions, and expand scope only from evidence.

    Operating model + change path

A controlled place to begin

Find the right task for an agent.

An Agentic AI opportunity assessment identifies workflows where an agent can help, the actions it may take, and the proof needed before production.

Assessment outputs

  • Prioritized agentic use cases + exclusions
  • Workflow, tool + data-readiness findings
  • Agent architecture + autonomy options
  • Evaluation, safety + approval plan
  • Pilot recommendation + delivery path