FROM INVISIBLE AI SPEND TO MEASURED VALUE

AI Cost Optimization (FinOps 2.0)

We make the cloud cost of AI workloads visible; we optimize GPU/TPU allocation and tie AI spend to business value with the FinOps 2.0 framework.

ISO 27001ISO 27017KVKKScope record
01 Current state Topology, traffic, and dependency visibility.
02 Target architecture Segmentation, capacity, and availability design.
03 Controlled cutover Change window, validation, and rollback plan.
04 Hypercare Monitoring, tuning, and operational handover.
POSITION

Where this service sits in the portfolio

Capability card infographic for AI Cost Optimization (FinOps 2.0)
SERVICE SCOPE

What this service addresses

The critical topics this service addresses and the outcome we deliver in each.

Visible AI workload cost

measured target

With an AI workload cost inventory and consumption analysis, we make spend manageable through a baseline measurement, target and review cadence.

Optimized GPU/TPU allocation

evidence readiness

Through GPU/TPU utilization and idle analysis we prevent resource waste and separate training and inference cost.

AI spend tied to business value

measured target

With an AI ROI measurement framework and KPI definitions we tie investments to business value and provide department-level cost transparency.

Continuous optimization loop

contract-scoped

With a FinOps dashboard, anomaly detection and a monthly review loop we catch budget overruns early and sustain optimization.

Delivery model

Delivery approach

How we phase the service across delivery, governance, and connected service pillars.

  1. We begin with an AI workload cost inventory and consumption analysis, producing GPU/TPU resource utilization, training/inference cost separation and an AI ROI measurement framework.

  2. We apply optimization: GPU/TPU rightsizing, mixed precision/distillation/quantization, inference endpoint autoscaling/serverless assessment and a FinOps tagging/chargeback model.

  3. We deliver an AI FinOps report, an optimization action plan, an ROI dashboard (Power BI/Grafana) and a monthly review template, and provide 3 months of monitoring and tuning support after the first loop.

Operating contexts

Example operating contexts

Illustrative surfaces where this service is commonly activated.

Early-stage AI cost discipline

Building the habit of correct tagging and cost monitoring at small scale to prevent uncontrolled growth as it scales.

On-premise versus cloud GPU decision

On-premise TCO for sustained high utilization, cloud GPU flexibility for variable workloads; an economic analysis of the hybrid model for most scenarios.

Spot/preemptible GPU workload split

Balancing training and batch-inference workloads to spot and interruption-sensitive production workloads to on-demand/reserved capacity.

DEPTH

Technical and compliance depth

This service's depth on sector-specific technical and compliance topics.

Training pipeline optimization

Reducing training time and inference cost with mixed precision, gradient checkpointing, distillation and quantization; proving the impact with PoC/baseline measurement.

FinOps tagging and chargeback

Department-level AI cost transparency through tagging, showback/chargeback and anomaly detection; cloud cost API integration.

Dashboard and review loop

A Power BI / Grafana dashboard with Prometheus/Datadog integration; a monthly FinOps review and quarterly strategy update.

What It Solves

AI and machine learning workloads introduce a new category of cloud cost complexity that traditional FinOps tooling was not designed to manage. GPU compute, large model inference endpoints, training job orchestration, and token-based API consumption create unpredictable and rapidly escalating spend. Without AI-specific cost governance, organisations risk over-provisioning expensive GPU instances, paying for idle inference endpoints, and lacking the visibility needed to justify AI investment to the board. Our AI Cost Optimisation practice delivers FinOps 2.0 capabilities purpose-built for AI workloads.

AI workload cost attribution with GPU utilisation and token consumption dashboards
Training job cost forecasting and spot/preemptible instance scheduling
Inference endpoint right-sizing with automated scale-to-zero policies
LLM API cost governance with per-team and per-project spending limits

Key Benefits

Benefit

Make cost and resource optimization measurable against the agreed baseline and review cadence

GPU Platforms
AWS p4d/p3/g5, Azure NCv4 (A100), GCP A3 (H100), on-prem NVIDIA DGX
MLOps Platforms
MLflow, Kubeflow, SageMaker, Azure ML, Vertex AI
Cost Tools
Infracost, CloudZero, CloudHealth, custom Grafana AI cost dashboards
LLM APIs
OpenAI (GPT-4o), Azure OpenAI, Anthropic Claude, approved self-hosted endpoints

Scope

The AI FinOps engagement covers current-state AI spend discovery, cost optimisation architecture, implementation of governance tooling, and ongoing managed optimisation reporting. We address the full AI cost stack from infrastructure compute and storage, through MLOps platform costs, to third-party model API consumption. The scope includes both training and inference phases of the AI lifecycle.

AI spend discovery across all cloud accounts and model API subscriptions
Spot and preemptible instance strategy design for training workloads
Model caching and semantic deduplication to reduce repetitive API calls
Chargeback model design with AI-specific cost allocation rules

Key Benefits

Benefit

Turn the outcome into a measurable target with baseline, owner, and review cadence

Benefit

Make cost and resource optimization measurable against the agreed baseline and review cadence

Benefit

Enable AI programme scale without proportional cost growth through efficient model serving architectures

Inference Optimisation
TensorRT, ONNX Runtime, vLLM, quantisation (INT4/INT8)
Spot Orchestration
AWS Spot Fleet, GCP Managed Instance Groups, Azure Spot Scale Sets
Caching Layer
Redis Semantic Cache, GPTCache, Langchain Caching
Budget Enforcement
AWS Budgets, Azure Cost Management Alerts, Infracost CI policies

Deliverables

AI FinOps deliverables combine financial reporting artefacts with technical implementation guides and ongoing optimisation recommendations. Board-level financial summaries are complemented by engineering-level configuration guides that enable your platform teams to sustain optimisations independently. All dashboards are built on open standards to avoid proprietary tool lock-in.

AI cost baseline report with workload-level attribution and waste analysis
GPU utilisation and inference endpoint efficiency dashboards
Optimisation implementation playbook with step-by-step configuration guides
Monthly AI FinOps review report with cumulative savings and next-cycle targets

Key Benefits

Benefit

Turn the outcome into a measurable target with baseline, owner, and review cadence

Benefit

Enable engineering teams to self-serve cost optimisation decisions with real-time dashboards

Benefit

Document AI spend governance for ESG and sustainability reporting requirements

Dashboard Platform
Grafana (open-source), Power BI, Looker Studio
Data Sources
AWS Cost and Usage Report, Azure Cost Details, GCP BigQuery Billing Export
Report Cadence
Real-time dashboards, weekly anomaly digest, monthly executive summary
ROI Framework
FinOps Foundation Unit Economics model, FOCUS cost data specification

Frequently Asked Questions

How do you attribute AI costs back to specific business units or product teams?

We implement a tagging taxonomy at provisioning time that maps GPU instances, storage volumes, and API gateway keys to cost centres, product codes, and team identifiers. For token-based API consumption, we deploy an AI gateway layer that enforces tagging on all outbound API calls and produces per-team usage reports integrated with your existing FinOps dashboard.

Can you help us decide whether to use cloud GPU instances or build our own on-premises AI infrastructure?

Yes. We produce a 3-year TCO model comparing cloud GPU spot and on-demand pricing against on-premises GPU server capital and operational costs, factoring in utilisation rates, power and cooling, and personnel costs. The model includes break-even analysis and scenario modelling for different workload growth trajectories, giving your leadership team the data needed to make an informed investment decision.

What is the risk of using spot instances for AI training jobs?

Spot instance interruption is the primary risk, but it is fully manageable with proper checkpointing. We implement automatic checkpoint saving to object storage at configurable intervals (typically every 30 minutes) so that interrupted training jobs resume from the latest checkpoint rather than restarting from scratch. With this in place, spot instances can surface cost savings against the agreed workload baseline with negligible additional training time.

How do you optimise costs for real-time inference that cannot use spot instances?

For real-time inference we focus on model efficiency rather than instance type arbitrage. Techniques include model quantisation, batching strategies, scale-to-zero configurations, and model routing, with compute impact measured against the agreed workload baseline and acceptance targets.

How do you measure the ROI of the AI FinOps engagement itself?

We establish a cost baseline in the first two weeks of the engagement using 90 days of historical billing data. All subsequent optimisations are measured against this baseline with full methodology transparency. Savings are categorised as realised (implemented and running), committed (implementation in progress), and identified (recommended but not yet implemented) to give an accurate picture of value delivered.

Can AI FinOps practices be integrated with our existing corporate FinOps programme?

Yes. We design AI FinOps as an extension of your existing FinOps practice, using the same cost centre taxonomy, chargeback model, and reporting cadence. AI-specific metrics such as cost per training run, cost per inference request, and GPU utilisation rate are added as new dimensions to your existing FinOps reporting, rather than creating a separate parallel process.

STARTING POINT

Where should the conversation begin?

This short form routes your request to the right support team. We clarify context first, then define the safe sharing method.

  1. We capture context
  2. We choose a safe channel
  3. We clarify the first direction

Privacy-aware first contact; safe sharing flow when needed; no sales pressure.

Main request topic