Decarbonization - Engineered in Switzerland

Let's get started: GETEC is developing the industrial
ecosystem of the future in Switzerland.

 

 

 

 

 

 

 

 

Interview with
Stephan Buser and
Maria Lampel

 

 

 

 

 

 

 

 

What is the strategic significance of the acquisition for GETEC?

Stephan Buser: The acquisition is a key element of our corporate strategy because the park has an excellent infrastructure, a large catchment area for highly qualified employees and enormous development potential – exactly what large companies look for. This has also been confirmed in our discussions with potential new customers. Our long-term goal is to expand the site into a center for sustainable production and innovation in growth areas such as the life sciences and related high-tech sectors. To achieve this, we are seeking to create an industrial ecosystem in Switzerland that fully leverages the locational synergy effects of Stein and Muttenz.

 

Which concrete plans will be implemented next?

Maria Lampel: In the course of the acquisition, we have been able to hire a number of employees who previously already worked here. They have first-class knowledge of the site and the processes so this is a big win for us. The team has continued to grow further. In addition, we are implementing all of GETEC’s standard tools. Our next step will be to identify optimization potential in the areas of building management, energy supply, engineering, maintenance and environmentally friendly wastewater treatment and waste disposal. If we succeed in fully leveraging this potential, it will benefit our existing tenants and make the park more attractive to new customers.

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Maria Lampel
Head of Environmental Protection, Safety and Quality at GETEC PARK.STEIN

 

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Stephan Buser
Site Manager at GETEC PARK.STEIN


GETEC PARK.STEIN

2024

Operational acquisition
by GETEC

3

Number of life science companies
located at the site

~ 2,000

Number of employees curently working at the
site, with potential for up to 3,500 employees.
Flashback: There were ten employees in 1957,
increasing to more than 1,000 from 1972.

3400,000m²

Total surface area of
GETEC PARK.STEIN

1200,000m²

Total area available for new
Greenfield customers

~ 2.1 MWh

Electricity to be generated each year on
completion of the solar power plants

Electricity instead of Fossil Fuels

GETEC is building the largest air-to-water heat
pump plant in Germany.
csm_01_5G_481476d80d

Project Data

Construction time: July 2024 to April 2025


1 million

cubic meters of ambient air will
be circulated hourly by the air-to-
water heat pumps when they are
operating at full capacity –
enough energy to cover all the
site’s heating requirements.

6,000

metric tons of CO2 emissions will
be cut each year at the
Hilchenbach site once the plant is
commissioned.

95

degrees Celsius is the planned
initial flow temperature. After
completion of the modernization
measures, the flow temperature
is to be reduced by ten to 20
degrees Celsius.

A Turning Point in
Industrial Heating
Supply

Contacts: Project Manager Tim Lendering and Account Manager Daniel Hein (GETEC)

What is the biggest innovation of the power-to-heat project?

Tim Lendering (TL): It is now standard practice to install heat pumps in private homes. However, the project is groundbreaking in the industrial setting in Germany, especially with its output of just under 4.3 megawatts. SMS group is demonstrating a pioneering spirit and other companies are expected to follow suit soon.

 

What challenges had to be overcome in this project?

TL: There were a number. The first concerned the technology. In the first phase, the power-to-heat plant has to deliver a high flow temperature of 95 degrees Celsius because of the outdated end user plants. This is still very energy-
intensive. That is why the combination with the electric boiler and buffer storage is so advantageous. At times of low demand, it allows us to take up large amounts of surplus energy from the national power market and store it as thermal energy ready for use when internal demand increases. In the future, the flow temperature is to be reduced by 15 to 20 degrees Celsius. Due to these different modes of operation and system parameters, there was no prototype for the plant, which was why it was necessary to completely reinvent and redesign the engineering of the hydraulics and the control technology.

 

 

What were the other challenges?

Daniel Hein (DH): This project is what we call an upgrading project, with the new plant being built inside an old boiler house. This means that the existing plant has to be dismantled while still ensuring the supply of heating throughout the winter until spring 2025. The new plant will then be installed. Planning therefore harbored a great many details for which we found solutions.

In addition, the Hilchenbach site is in a mixed residential and industrial area, which meant that noise protection was a major consideration. In this connection, we came up with a range of solutions for installing the plant. We also had to plan fire and hazard protection systems in detail and obtain local authority approval.

 

Is that all that’s being done in Hilchenbach?

DH: No, it’s just the beginning. Once the hardware and the plant are commissioned, we will be collecting data to analyze and, in the future, reduce energy consumption. We also aim to optimize energy purchasing with the aid of an AI-based software. The consumption and demand data from Hilchenbach will be compared with data from the power exchange and weather forecasts. The customer is also considering the construction of an additional buffer storage tank.