Operating without a reliable system is not just inefficient: it shapes pricing, mix, capacity, make-or-buy decisions, service levels, and cash usage. A useful system—even if it is not perfect—makes it possible to correct material deviations, adjust inventories, and align the organization around where value is actually created.
Prices you cannot adjust because “the numbers don’t work.”
A product mix that looks profitable but destroys real contribution.
Sales growth that ties up cash instead of generating it.
Large customers that erode margin while the system masks it.
Operational variability that distorts the P&L without appearing in any KPI.
Does this sound familiar? The real question is different: can your cost system actually explain it?
Many companies believe they have a reasonable system… until, right before a critical decision, they realize the model does not support any decision that truly matters. Too often, the available data offers little clarity to decide with confidence.
The perfect system does not exist; the one that enables good decisions does.
In industrial environments, the objective is not to build a flawless model, but to have a system capable of accurately reading profitability by product, customer, and channel—and of rigorously answering essential questions: what truly contributes value, where margin is diluted, which configurations are sustainable, and which adjustments in pricing, range, or operating model make sense.
Operating without a reliable system is not just inefficient: it conditions decisions on pricing, mix, capacity, make-or-buy, service levels, and cash usage. A useful system—even if imperfect—allows relevant deviations to be corrected, inventories to be adjusted, and teams to be aligned around where value is really created.
That is why, before designing any model, it is essential to assess the real starting point: data quality, traceability, and operational and organizational maturity. Only with this framework is it possible to progressively evolve the system and begin making sound decisions within the first few weeks.
Most industrial companies share the same foundational issues: outdated bills of materials, consumptions far removed from shop-floor reality, calculations focused solely on production, confusion between invoiced and produced output, or the exclusion of service costs that distort the true margin picture.
These errors are not merely technical: they distort decisions. The key question is: does your model allow you to anticipate them?
The result is a model that produces figures… but does not explain reality. And without explanation, decisions revert to intuition.
A decision-oriented cost system is not a sophisticated spreadsheet nor a standard overhead allocation.
It is a model that integrates economic and operational data—plant, logistics, sales, and service—and allows profitability to be read across different dimensions, levels, and behaviors.
Only then can you answer critical questions:
Seeing these layers—and not stopping at aggregated averages—makes it possible to uncover hidden inefficiencies such as:
The difference between a company that knows this and one that does not is simple: one decides with data; the other navigates blind.
Inventory valuation—finished goods, work in progress, or even raw materials with significant variability—is one of the main sources of distortion in both industrial margin and working capital. When the valuation method does not consistently reflect the work actually performed, period closes lose stability and margin fluctuates without a clear operational explanation.
Work in progress is usually the most sensitive element. Without a precise methodology, variations are hard to justify and can distort both margin and cash interpretation. A practical and accurate approach includes:
The goal is not millimetric precision, but a reliable representation of real process progress. The effect is immediate: more stable valuations, predictable closes, and an industrial margin that can be interpreted with confidence. In management terms: cash without artificial volatility.
While WIP concentrates most complexity, in many companies the key inventory is finished goods. In these cases, the priority is ensuring that standard cost—raw materials, transformation, and industrial costs—is consistent with operational reality, and that deviations are systematically analyzed and corrected. This prevents inventory valuation from misleading margin analysis or commercial and operational decisions.
System design is what separates a theoretical model from a practical tool. A pragmatic approach is typically structured in three phases.
Before defining any model, it is essential to ensure that information reasonably reflects reality. This phase focuses on:
The objective is to reach a minimum level of consistency that allows initial decisions to be made. In parallel, the reference unit for reading margin is defined (€/unit, batch, m², machine hour, etc.)—one that business and operations naturally use.
The aim is not to capture everything from day one, but to define which questions the system must answer: which families, channels, segments, or customers should be analyzed first, and why.
On this basis, a first viable model is designed that, within a few weeks, allows you to:
This model is not final, but it is a solid foundation that provides visibility and unlocks decisions.
In a company with manual processes and outdated bills of materials, a first simple family-level model identified references with gross margin misinterpreted due to unrecorded scrap and real consumptions. Based on this insight, management adjusted prices in two families and eliminated low-rotation variants that consumed capacity without return.
Impact: within eight weeks, the company recovered 1.5–2 gross margin points in those families and reduced time spent on low-contribution variants by 12%, freeing capacity for more profitable products.
Only when the system is actively used does it make sense to deepen it. In this phase:
Costs initially excluded due to complexity or lack of data are incorporated: setups, changeovers, internal logistics, consumables, waste, quality inspections.
Systematic analysis of deviations versus standards or budgets aligns calculated costs with operational reality. As data quality improves, material differences—by product, customer, or segment—surface, enabling more precise decisions across the organization.
Cost systems rarely fail for technical reasons. The root causes are usually organizational dynamics, conflicting priorities, or unrealistic expectations about what the model can solve. A poorly conceived system does not collapse suddenly; it degrades. It loses consistency, stops answering relevant questions, and internal trust erodes. When that happens, the model keeps producing numbers, but the organization stops relying on them—and decisions revert to intuition.
The blockers are more about how the company operates than how costs are calculated:
The outcome is always the same: frustration, fatigue, and decisions made “by gut feel,” even in environments where data seems to be available.
The sustainability of a cost system requires improving how information is captured and governed.
Integration between ERP, CRM, production systems, and analytical tools is essential to ensure coherent data, agile models, fewer errors, less manual work, and greater predictive capability to anticipate issues and opportunities.
This is not about technology for its own sake, but about turning data into an operational asset that supports better decisions. Imagine transforming the pressure of data collection into the satisfaction of having valuable information that makes daily work easier.
Our approach avoids generic models and is built from each company’s operational reality.
We focus on three principles:
A cost system is useful when it enables decisions that directly affect how margin is generated, how capacity is consumed, and where value is concentrated. These archetypes illustrate what a well-built model can unlock.
In an industrial company where we implemented the cost system progressively, the initial model only allowed direct costs and gross margins to be read. As the system evolved—incorporating real times, updated consumptions, and selected commercial and logistics costs—products and customers emerged whose real contribution was significantly lower than estimated.
Impact: with this new insight, the company adjusted prices in several families, simplified low-traction variants, and renegotiated conditions with customers whose cost-to-serve exceeded returns. In the first year, these decisions translated into a cumulative 3–5 point improvement in commercial margin and a meaningful reduction in unproductive hours, freeing capacity and reducing associated logistics costs. The combined effect delivered a sustainable EBITDA increase of around 8–10%, without capacity expansion or additional investment.
Today, managing profitability with precision and agility is critical for competitiveness and long-term sustainability. A useful cost system is a strategic necessity that impacts the P&L, operational capacity, and financial health.
It is not enough to read data and allocate costs; what is required is a model that enables informed, fast, and aligned decisions—built from reality and evolved progressively.
The opportunity is on the table. Companies that commit to a robust and adaptable system will gain a real competitive advantage, improving margin, capacity utilization, and cash flow.
Do not let complexity or inertia paralyze you. The time to act is now.