
Causality: Forecasts Measured in Profit, Not Percentages
Engineered for Financial Control
A forecast is only valuable if it drives a better financial outcome. Causality is built around one core financial metric: the Cost of Forecast Error (CFE).
Beyond accuracy, Causality measures performance in dollars. It translates forecasting error into the real commercial consequences of being wrong, whether that is excess inventory and overstaffing from over-forecasting, or lost sales, poor service and expedited freight from under-forecasting.
Causality connects to your existing data sources and planning processes. It can run within the Microsoft ecosystem to streamline data flow and automate model selection, while its differentiator is identifying causal drivers so your teams can intervene and influence outcomes, not just predict them.
Enterprise Ready, New Zealand Focused
Results are delivered through clear PowerBI visualisations, with interactive what-if analysis that lets teams explore scenarios and the impact of key variables before committing capital or inventory decisions.
Causality is built for mid to large organisations with complex portfolios and material inventory risk and provides a practical route to better planning outcomes. Available via the Microsoft Marketplace.
Book a no-obligation discovery session to see how Causality can help you predict, plan and act with confidence.
Call: +64 27 255 5000
Email: hello@virtualblue.co.nz
Most executives will tell you that when shaping business plans and strategy, forecasts can serve as a great counterweight to gut feelings and biases. Most will also admit, however, that their forecasts are still notoriously inaccurate.
- McKinsey & Co.

What is Forecast Error Costing You?
The Causality CFE Calculator
Your estimated annual cost of forecast error:
$0
Projected annual savings:
$0
This calculation is a high-level financial projection. The result is an estimate of the potential total cost of your current forecasting error, and the projected savings from applying the Predictive Value Framework (PVF)™.
Book a no-obligation, 60-minute discovery session to see how Causality can improve decision outcomes in your context.
Call: +64 27 255 5000
Email: hello@virtualblue.co.nz
The Predictive Value Framework™
Causality is the software implementation of the Predictive Value Framework™ (PVF), a proprietary methodology developed by Dr Peter Catt, one of New Zealand’s most published practitioners in sales forecasting.
Every forecasting problem can be defined by three critical attributes. Getting these right determines whether machine learning creates value or quietly burns budget. PVF is designed to prevent the waste you often see in generic AI roll-outs, by forcing discipline around what can be predicted, what it's worth, and what can be influenced.
1) Forecastability: is there a signal?
Before we invest time in forecasting, we determine whether your data is genuinely predictable. We audit each time series up front using evidence-based indicators, including entropy measures, seasonality, and trend.
Machine learning is powerful, but it cannot reliably predict behaviour that is effectively random. When a series is highly irregular and lacks consistent structure, models tend to "see" patterns that do not hold up in the real world. In those cases, the sensible response is usually operational, for example, using buffers, safety stock, or service-level policy, rather than spending budget on a solution that can't add value.
We quantify this predictability using entropy and mutual information, which measure how much exploitable structure exists in the series at each forecast horizon (Catt, 2009, 2014, 2026).
2) Cost of Forecast Error: what is at stake?
Traditional forecasting focusses on generic accuracy scores that treat every error as equal. But improved accuracy does not automatically translate to better business outcomes, the relationship is far more complex. In practice, the cost of being wrong is rarely symmetrical: over-forecasting (excess stock, holding costs, obsolescence) carries different penalties than under-forecasting (lost sales, stock-outs, service failure).
We quantify that financial asymmetry in your context using the Cost of Forecast Error (CFE).
CFE operates as a governance loop around ML investment:
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Before modelling, we calculate the baseline CFE to identify where forecast improvement will generate financial returns, preventing investment in models for products where the cost of error is trivial, regardless of achievable accuracy gains.
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After deployment, CFE measures the value delivered in the same financial terms used to justify the investment, accountability in your organisation's own language.
Service level targets feed directly into CFE calculations, but they must be set independently of the forecasting process. Research shows that forecasters unconsciously anchor predictions toward service targets, systematically biasing demand forecasts. PVF addresses this by separating service level governance from forecast generation so that strategic targets influence inventory policy through CFE, not by contaminating the underlying predictions. The result is forecasting governed by business value, not statistical metrics (Catt, 2007, 2008a, 2008b, 2010).
3) Causal Machine Learning: can we intervene?
Most forecasting tools are passive: they extrapolate history and stop there. Causality goes further by applying machine learning techniques grounded in formal causal inference theory to understand why demand moves and whether you can change the outcome.
By separating correlation from causation, we identify controllable drivers such as pricing, promotions, supply constraints, and operational changes. That turns forecasting into a decision tool: instead of merely accepting a forecast, you can test the likely impact of specific actions and choose the best commercial response (Catt, 2017).
Where causal levers exist, CFE-governed investment in Causal ML is justified. Where they do not the emphasis shifts to CFE-optimised buffers rather than intervention strategies.
Forecasting for Profit
The Predictive Value Framework™ shows you how to measure and manage what actually matters, the financial cost of being wrong.
The Power of Prediction
Forecast Accuracy
50%
Reduced forecast error from machine learning
Increased Sales
7.5%
Increase in sales due to improved stock availability
Reduced Disruption
40%
Reduction in business disruption impacts
Reduced Inventory
75%
Reduction in excess inventory holding
Less Emissions
15%
Decrease in value chain carbon emissions

Predict, Plan, and Act with Confidence
For Your Executives
STRATEGIC PLANNING
Generate data-driven scenarios for strategic planning sessions, so leadership teams can test assumptions and make decisions based on quantified outcomes, not instinct.
RISK MANAGEMENT
Model and identify potential risks before they impact operations, supporting proactive mitigation and protection of business value.
RESOURCE OPTIMISATION
Forecast resource requirements across different business scenarios to improve allocation of capital and operational resources.
For Your Finance Team
CASH FLOW FORECASTING
Use machine learning outputs to anticipate cash flow pressure and working capital requirements, with decision rules aligned to the cost of being wrong.
BUDGET PLANNING
Generate more reliable revenue and cost projections that reflect both uncertainty and the economics of error.
PERFORMANCE TRACKING
Monitor actual versus predicted performance and interpret deviations in financial terms, so teams can respond quickly and consistently.
For Your Operations Team
DEMAND FORECASTING
Predict future demand patterns across products and services to improve availability, reduce waste, and stabilise operational planning.
PROCESS OPTIMISATION
Model and anticipate operational bottlenecks so teams can address constraints before service is impacted.
CAPACITY PLANNING
Forecast staffing and capacity requirements across scenarios, especially where lead times and service commitments create material risk.

Insights to Action in Five Steps
Our evidence-based methodology delivers a solution through a systematic five-step process. An initial pilot is typically delivered in around six weeks. Enterprise rollout timelines depend on data readiness, integration, governance, and change management.
01. Discovery & Problem Definition
We clarify the commercial question, not just the technical one. What decision will this forecast inform, and what is the cost of being wrong? This is where we define the Cost of Forecast Error that governs everything that follows.
02. Data Preparation and Forecastability Assessment
Before modelling, we perform an Entropy analysis to assess forecastability. This identifies which series have exploitable signal and which are dominated by noise. This prevents wasted effort and sets realistic expectations. Calculate the baseline CFE.
03. Feature Engineering and Causal Analysis
We incorporate drivers that genuinely move outcomes, including pricing, promotional activity, operational constraints and macro conditions where they matter. The objective is to support intervention, not simply improve curve-fitting.
04. Model Development and CFE Optimisation
We develop and compare candidate models, then evaluate forecasts through the lens of CFE. This ensures decisions are aligned to the financial impact of over-forecasting and under-forecasting, rather than relying on generic accuracy metrics alone.
05. Implementation and Ongoing Optimisation
We deploy into production with Power BI reporting and operational integration as required. Models and decision rules are monitored over time, with retraining and drift management to maintain performance against CFE targets.

References
Catt, P. M. (2007). Assessing the cost of forecast error: A practical example. Foresight: The International Journal of Applied Forecasting, (7), 5–10.
Catt, P. M. (2008a). Assessing forecast model performance in an ERP environment. Industrial Management & Data Systems, 108(5), 677–697.
Catt, P. M. (2008b). The theory and practice of SAP's ERP forecasting functionality. Journal of Enterprise Information Management, 21(5), 512–524.
Catt, P. M. (2009). Forecastability: Insights from physics, graphical decomposition, and information theory. Foresight: The International Journal of Applied Forecasting, (13), 24–33.
Catt, P. M. (2010). Sales forecasting with SAP enterprise resource planning: An empirical study. Lambert Academic Publishing.
Catt, P. M. (2014). Entropy as an a priori indicator of forecastability. ResearchGate.
Catt, P. M. (2017). Big data and the Internet of Things. Foresight: The International Journal of Applied Forecasting, (45), 27–28.
Catt, P. M. (2026). The knowable future: Mapping the decay of past-future mutual information across forecast horizons. arXiv preprint arXiv:2601.10006.
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