Cookies

This website uses cookies that require your consent.

Skip to content

Why Stable Production Processes Still Benefit from Data Analysis

Many production facilities have been operating reliably for years. Quality and plant safety are well-established, the processes have been validated, and the operating limits are clearly defined. So why should you change anything? We’re asking the tough questions.

Many companies are initially cautious about data-driven optimization approaches. Not because they underestimate their potential, but because there is a valid question that needs to be addressed:

Why should we trust a data-driven AI approach when our current process is running smoothly and we can't afford to take any risks?

The answer lies in a fundamental misunderstanding. A data science framework does not intervene in the production process on its own. It neither replaces employees’ process knowledge nor existing engineering methods. Rather, it provides transparency into the relationships that are already contained in existing operational data.

The goal is not to automate decision-making. The goal is to make decisions more informed.

How do we proceed?

At CTE, you—the customer—are our top priority. Only with your process expertise can we optimize your production. We focus on the interplay between collecting, structuring, and validating data.

Go directly to the solution

Does the company retain control?

When people talk about data science, machine learning, or artificial intelligence, they often picture a system that independently adjusts process parameters and intervenes in production. That is precisely not the case with the Data Science Framework.

The first step involves analyzing existing operational data. This process reveals correlations between process parameters, energy consumption, product quality, and plant performance. The results serve as an additional basis for decision-making for production, engineering, and operations managers. The decision on whether to implement specific optimizations based on these findings remains with the relevant technical experts. Human oversight is maintained at all times.

Is the available data even sufficient?

Another common question is: Do we even have enough data to perform meaningful analyses? In many industrial companies, the answer is, surprisingly often, yes.

Process control systems, historian databases, laboratory results, energy measurements, and production reports already provide large amounts of valuable information. Often, the issue is not a lack of data, but rather the absence of structured analysis across different systems and data sources.

That is why a data science framework always begins with an analysis of the available data:

What data is available?
What is the quality of the data?
What kinds of questions can this help answer?
Where are the gaps?

This creates a solid foundation before further investments or projects are launched.

Is operation guaranteed during pilot tests?

In the process industry in particular, safety, product quality, and plant availability are top priorities. For this reason, pilot projects are designed to ensure that existing operating limits are adhered to at all times. Potential optimization measures are defined, evaluated, and implemented under supervision in collaboration with process managers. Internal approval processes, quality requirements, and safety guidelines remain fully in effect.

The goal of a pilot project is not to take risks. The goal is to systematically evaluate opportunities for optimization under real-world conditions.

A supplement or a replacement for existing models?

A data science framework is no substitute for simulation models and engineering tools. Traditional models describe how a process should function under defined conditions. Data analysis, on the other hand, shows how the process actually behaves under real operating conditions.

This can provide additional insights, especially for existing systems:

Interactions between different process parameters
Effects of Fluctuations in Raw Material Prices
Effects of Different Driving Styles
Relationships Between Energy Consumption and Product Quality

The greatest benefits are realized when theoretical models, process knowledge, and actual operational data are considered together.

Is this approach also suitable for regulated industries?

In the pharmaceutical, chemical, and biotechnology industries in particular, questions about regulatory requirements often arise. Here, too, the Data Science Framework does not replace existing approval, validation, or quality assurance processes. Rather, it helps users systematically analyze relationships and document their findings in a transparent manner.

Whether and how an optimization is implemented depends on the relevant internal guidelines and regulatory requirements. The framework provides the basis for decision-making—the responsibility remains with the company.

What's the best way to get started?

Small. Not with a comprehensive digitization project, but with a clearly defined problem statement.

Typical starting points are:

Energy-intensive production processes
Assets with known fluctuations
Quality Deviations
Potential Efficiency Gains
Recurring Process Problems

Using existing data, it is possible to determine whether relevant correlations can be identified and whether an in-depth analysis is worthwhile. This keeps the effort and risk manageable, while the potential benefits become apparent early on.

Does data create transparency or uncertainty?

Stable production processes are not an argument against data-driven analysis. On the contrary. Especially where processes are already running reliably, existing operational data can help reveal previously hidden correlations and identify additional opportunities for optimization. A data science framework does not automate decisions or replace process experts. It provides the foundation for making decisions that are more informed, transparent, and data-driven. After all, the most valuable insights are often already found in the data that companies already possess.