Two Pillars

Why Systems Engineering?

Nowadays, technical products integrate the various disciplines such as mechanics, electronics and software very deeply. In the case of mechatronic and intelligent systems, this brings with it growing challenges in product development: Increasing integration causes a large number of dependencies within a system to be developed – the system under design. What is needed here is a holistic method that takes into account all requirements in an interdisciplinary manner and helps to master the complexity: The development of such complex mechatronic systems is the goal of systems engineering.

At its core, it’s about:

Model-Based Systems Engineering (MBSE) relies on the model-based description of the system for the implementation of these potential benefits and is thus a catalyst for more effectiveness and efficiency. The system model as the core of the MBSE describes requirements, functions and solution elements of the system to be developed. This information is available in a linked form and can be used, for example. can be used for risk and impact analyses. Incomplete specifications or confusing specifications are therefore a thing of the past.

Systems engineering is the method that accelerates your product development, iQUAVIS is the tool with which you can optimally implement this method.

Do you know what other companies think?

35 %
* have a keen awareness of the need for SE
0 %
* See you in the int. Comparison NOT strong enough in the SE
20 %
* are in the process of Systems Engineering
and MBSE
15 %
* see Systems Engineering as
Top Management Theme

What is Systems Engineering?

The most widely used definition of systems engineering comes from INCOSE – the International Council on Systems Engineering.
For systems engineers worldwide, INCOSE is what e.g. The VDI in Germany for engineers is:

“An interdisciplinary approach and a means to enable the realization of successful systems. The approach aims to define customer needs and the necessary functionality early in the development process, document the requirements and then proceed with the system design and coordination with the customer, taking into account the problem in its entirety. Systems Engineering considers both the economic and technical needs of the customer, with the aim of creating a high-quality product that meets the needs of the users.” (INCOSE)

This very technical definition is the common denominator of the professional world. In addition, the approach of Professor Reinhard Haberfellner, who describes systems engineering as a socio-technical approach, has also prevailed in the core community in Europe. He summarizes this approach in the Systems Engineering man, which also contributed significantly to the founding of Two Pillars .

Systems Engineering Male

Solve complex socio-technical issues now!

In addition to methods and tools, Haberfellner’s approach increasingly focuses on basic normative principles as well as initial approaches to change management. The well-known SE male is therefore divided into 3 areas:

1. The Systems Engineering journey begins in the mind.
The SE philosophy is divided into systems thinking and the most important procedures in systems engineering.

2. The feet give a firm footing in the SE application.
This is where the tools of system design and project management are anchored.

3. The fuselage is the connecting element.
Through the interaction of head and feet, the project is run through in a structured manner; this is where an idea is transformed into a solution or product. The head sets the direction, the feet carry the goal – and in the middle is the development process.

The History of Systems Engineering

Systems engineering established itself in the 20th century as a method for developing and managing complex systems. The particular strength lies in the holistic view of systems and their interactions in order to meet the specific requirements. However, with the increasing complexity of modern systems, the demands on systems engineering have also expanded. As a result, a new method has emerged that effectively addresses these challenges: Model-Based Systems Engineering (MBSE).

A major reason for this change is the need to meet the increasing demands for system complexity. MBSE makes it possible to model and analyze complex systems at a more abstract level, resulting in improved system understanding and mastery. By using models – keyword: digital twin – engineers can look at different aspects of a system simultaneously and better assess the effects of changes.

Another reason for the transition to MBSE is the increasing interdisciplinarity in system development. Modern systems require the cooperation of different disciplines such as mechanics, electronics, software and more. Through the use of models, these disciplines can develop and integrate their system components independently of each other. The models serve as a common language and interface to ensure a smooth flow of information and efficient collaboration – throughout the entire life cycle!

Systems engineering is not an invention of the 21st century. But what are exciting milestones?

Practical examples of MBSE

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FAQ Systems Engineering

Do you have any further questions about systems engineering? We have summarized common questions as well as typical problems with the introduction of MBSE in an FAQ for you. If you have any further questions, please do not hesitate to contact us personally.

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