Engineering

Shape the future of construction - creatively, sustainably, technically sound!

Automation Engineers develop, optimise and automate equipment. Or in other words: by means of sensors and special software they cause machines to perform intelligently. For example, they ensure cash machines dispense the right amount of banknotes, engines are high-precision and airbags are sure to open in a crash. Eco-engineers develop environmentally-optimised solutions for production plants, electric vehicles or solar- and wind power stations. Wels students recently invented Austria’s first pizza dispensing machine. They also recently programmed a regulation system for the hybrid drive of the BRP CanAm Spyder, a guidance system for single-track railways.

Fascinated by the constantly advancing development of mobility and how we will get from A to B in the future? Then Automotive Computing is the right course for you! It deals with the latest technologies, trends and concepts that will shape the way we get around: from automated driving and sustainable transportation solutions to intelligent traffic control. The key to solutions such as intelligent assistance systems, autonomous driving or mobility-based services (such as Uber) is software. Other fields of application for the know-how imparted by this degree program include dashboard design for vehicles, the use of intelligent mobility in logistics, precision farming, real-time kinematics and even support in disaster relief operations, giving graduates the opportunity not only to shape the smart mobility of tomorrow but also to make a valuable contribution in terms of efficiency and environmental friendliness.

Civil Engineers are experts on the subject of buildings, from planning to construction, renovation to demolition. Civil Engineers are in demand: they plan, design, perform specific calculations and coordinate as construction team leaders. In contrast to the architect, for whom functionality and design are in the foreground, the civil engineer learns to evaluate his ideas mathematically in the areas of safety, functionality and costs. Using construction measurements and knowledge of building automation, civil engineers optimise new and existing building stock.

One of the leading trends today is the change to an environmentally friendly electrical power supply. This degree programme focuses on the design, operation and production of equipment for modern electrical power supply, electrical power distribution and transport, and energy conversion. This includes components for smart grids, the use of renewable energies and electric cars. The aim of the Electrical Engineering course is to provide graduates with the skills and know-how to meet the requirements of international electrical power engineering in the future. Our program is very practice-oriented and includes an internship, excursions to reputable companies, as well as the possibility of an exchange semester with one of our international partner universities.

What do smartphones, modern cars and robots have in common? They are ’smart‘ thanks to in-built computer technology that delivers functions once considered the stuff of sci-fi movies. Such smart computers depend on the perfect combination of dedicated software and hardware. This key symbiosis is the chief focus of our degree programme in Hardware-Software-Design. This full-time degree programme offers a thorough grounding in informatics, IT and electronics. Students will develop competence in the design and creation of embedded systems, software application and chip design.

Intelligent Production Engineering offers a specialization in automation technology in the field of modern manufacturing processes and materials technology. In addition to the general technical content, the courses and company projects cover in-depth knowledge of manufacturing processes, planning and operation of production systems including robots, production engineering, company organization and mechatronic systems. The course is organized in a part-time, work-integrated form from the 3rd semester onwards. Students spend at least 3 days at the university and the rest of the time, including lecture-free periods, at the partner companies.

Function, safety, lightweight, design, cost, durability and sustainability – the right choice of material is crucial for all products. Lightweight design and minimising material usage are essential when moving masses, given climate change and rising energy costs along with managing our limited resources. Understanding the interaction between materials – whether metals, composites, or plastics – their manufacturing processes, and part design is the basis for innovative solutions. This degree enables you to develop high-performance car-, aircraft- or spacestructures, sports equipment, durable and perfectly shaped consumer goods up to innovative environmentally friendly food packaging. Lightweight design and materials engineering make a decisive contribution to achieving climate, resource, and sustainability goals. This degree course offers a wide range of opportunities in a future-oriented industry. It combines innovation, technology, and sustainability.

In view of rising fuel and energy costs and the carbon dioxide problem, motor vehicles and aircraft must use less fuel in future. The rotor blades of wind turbines, various sports equipment such as tennis rackets, skis or Formula 1 cars (fibre-carbonmonocoque) must also be lighter but at the same time measure up to the highest safety standards. Lightweight construction will be the central concern in industry in the future. Everywhere where material is moved in large quantities e.g. in robotics or plant construction, lightweight construction developments will play a role in order to save costs. The job prospects for graduates in this field are commensurately promising.

High-quality aircraft-, vehicle- or engine parts, hard-wearing sports equipment, long-lasting and perfectly-shaped consumer goods all beg the same question: Which materials or combinations of materials are the most suitable? How can such products be produced and their quality and characteristics reliably checked? These are the questions which students of this degree programme must answer. Because choosing the right material is essential for all products: the function, safety, design and longevity are all determined by them. In this practice-orientated and researchfocused degree programme students put their knowledge of chemistry and physics into practice and develop metals, composites or plastics and their processing processes further.

Mechanical Engineering is ubiquitous in our modern world. We move around in motor vehicles, trains and aircraft. The manufacture of all our utility goods is achieved by means of machines which are in turn designed, developed and optimised by mechanical engineers using the latest methods of calculation, CAD, materials science, thermodynamics and simulation for their creative work. Mechanical Engineering graduates are highly sought-after in industrialised Upper Austria.

International companies need more industrial engineers who can solve problems related to engineering and economics. This degree programme is aimed at people in work with the academic standard for university entrance. Suitable HTL graduates with several years of career experience can join the degree programme in Semester 2. Large parts of the degree programme can be integrated with work.

NEW STUDY PLAN: This means more flexibility and a focus on the latest technologies, technically broad know-how for classic medical products such as computer tomographs and pacemakers as well as for new fields of technology in personalized medicine - the Medical Device Technology degree program offers you all of this. Bionic prostheses, bioprinting, assistive robot technologies, thought control and artificial intelligence are dynamic fields of technology that are helping medicine to treat people more and more efficiently. Students learn state-of-the-art technologies for the design and manufacture of this latest generation of medical products and can apply them directly in practice.

Process Engineering is the practical application of basic physical and chemical principles for the industrial production of solid, liquid and gaseous substances. Process Engineers work on the plants and processes. They are concerned with physical, chemical and biological steps – they crush, mix, modify, separate and purify raw materials – and thus create new products. They ensure that pills contain enough active ingredients or that the ingredients of yoghurt, lipstick, fuels or building materials are correctly mixed. Their knowledge and competence ensure that production processes are configured in an environmentally-friendly and energyefficient way.

In an era defined by rapid technological advancements, smart engineering integrates latest technology with traditional engineering principles to design solutions that are efficient, sustainable, and groundbreaking and thus becomes the foundation of a modern society. Robotics and automated production are key enabling technologies for the next decade and require a sound academic qualification. The international friendly bachelor’s degree program Smart Engineering offers the unique opportunity to acquire not only a cutting-edge engineering degree but also German language skills and the possibility to enter the European high tech job market. The program offers two German taught specializations in: automation engineering and mechanical engineering as wells as an English taught specialzation in branch electrical engineering.

Master´s degree programme, part-time

Digitalization and the use of artificial intelligence have become indispensable in today's industry. Automation technology is a strong beneficiary and at the same time innovation driver behind these technologies - also in Austria! The master's degree program in automation technology enables students to specialize individually in their later working life or field of interest through elective courses. Special emphasis is placed on the proximity to companies and also to research. Starting in the 2nd semester, students can work at least 2 days a week in addition to their studies and put their ideas into practice. In addition to the elective subjects, the necessary cornerstones of a modern automation solution are anchored in the curriculum with the topics of digital factory, control technology and IT security.

The Master’s study programme Civil Engineering in Building Construction offers a comprehensive post-graduate degree in the field of civil engineering with a focus on building construction. In addition to an extensive, in-depth education in construction engineering, students may choose elective subjects from two different course pools. Together this enables graduates of this programme to hold management positions upon completion of their studies.

New technologies such as electric cars or renewable and ecological power supply systems require fundamental research in electrical (energy) engineering. DC grids (used in batteries, hydrogen systems, or to distribute and transport electrical energy), and power electronics are the latest technologies aiming to provide a green and environmentallyfriendly energy supply. Introducing SMART technology into our power supply reduces costs as well as increasing reliability and accessibility for the end-consumer. This program will educate the experts needed to make electrical energy supply sustainable and future-proof. They will be pioneering the future!

Embedded systems provide the intelligence and performance in almost all modern devices. Their development requires a broad range of IT skills - namely expertise in hardware and software, including sensors and networking with the environment. The Master's degree program Embedded Systems Design teaches precisely this know-how. After completing this course, you will be able to realize precisely those intelligent and networked products ("smart systems") that are involved in developments such as the Internet of Things (IoT), smart homes or digital production. Such high-tech innovations require professionally developed embedded systems consisting of modern electronic and software components, integrated sensors and digital communication technology for data exchange in the network.

The energy transition has many facets: be it electro-mobility, the implementation of energy communities, the increased use of renewable energy and its storage, sector coupling, increasing energy efficiency, smart metering, demand-side management and much more. Much is currently in the making and the success or failure of all projects will depend on how well we manage to harmonise technological progress, the necessary standardisation and legislation as well as the economic framework conditions. This is precisely where the part-time Master's degree programme in Energy Informatics comes in. Students acquire in-depth knowledge of technological developments in the energy sector, learn how to use IT and programming in a targeted manner and gain an insight into the legal and economic framework conditions.

In view of rising fuel and energy costs and the carbon dioxide problem, motor vehicles and aircraft must use less fuel in future. The rotor blades of wind turbines, various sports equipment such as tennis rackets, skis or Formula 1 cars (fibre-carbonmonocoque) must also be lighter but at the same time measure up to the highest safety standards. Lightweight construction will be the central concern in industry in the future. Everywhere where material is moved in large quantities e.g. in robotics or plant construction, lightweight construction developments will play a role in order to save costs. The job prospects for graduates in this field are commensurately promising.

The economical, ecological and targeted use of materials and their efficient processing represent an essential competitive factor for Austrian industry. In view of the increasing quality requirements in production and in the use of new materials, more and more experts are required who are familiar with the specific requirements in processing and using these materials. The required quality of many products can only be achieved with appropriate processing technologies and their specific effects on the characteristics of materials. There is no comparable FH degree programme in all of Austria.

Mechanical engineering is a tried and tested study programme that has its finger on the pulse of the times with its many modern trends such as simulation, lightweight construction or bionics. The development of increasingly lighter and at the same time highly stressed components in automobiles, aircraft or also in the manufacturing or plant industry requires the use of sophisticated, innovative calculation, simulation and analysis methods. This degree opens the door to the fascinating world of modern mechanical engineering research and development.

Work in companies of the mechatronics industry has changed enormously because of the increasingly dynamic and complex business environment. The need for industrial engineers with interdisciplinary skills is growing continuously. This degree programme aims to meet this need by offering a higher qualification in selected fields of Mechatronics and Business Economics and also development and management competence.

The international Master's degree programme Medical Engineering (Biomedical Engineering) equips the students for engineering innovative medical devices. Furthermore students gain information how to place them into markets.

Lead and manage international plant construction projects, coordinate multinational teams and become a sought-after expert in the dynamic project business. As a project manager, you are the leading interface between customer and suppliers who realize complete or partial plants. Whether planning, automation, process engineering, procurement, transportation, assembly or the legal department – you ensure that every cog in the machine meshes efficiently. Your mission: to implement the scope of supply and services stipulated in the plant construction contract in a targeted manner while adhering to costs, deadlines and performance guarantees. And how? By studying a mix of engineering, business administration and business law specially tailored to the international project business, so that as a future project manager you can realize the plant construction projects of tomorrow.

Robotics has become an indispensable part of the current production world and is also leading to disruptive developments and enormous progress in other sectors such as agriculture or medical technology. However, robotics is only half the story. In order to develop an intelligent system, not only the machine itself is required, but also state-of-the-art sensor technology and a great deal of computer science. Robotic Systems Engineering offers an optimal education in the areas of the latest software algorithms and technologies for the implementation of complex automation tasks with robots. Holistic engineering approaches are taught, which digitally support man, machine, software and hardware from the first idea to the running operation.