Sustainability & Social responsibility

Innovation from responsibility

Our commitment to sustainability and society

We are aware of our responsibility towards society and future generations. As a long-standing, family-run company, sustainable management and the economical use of resources have been the basis of our entrepreneurial actions for decades.
By supporting various social projects, we make the future a little bit better. As a training company, we play a significant role in qualifying future skilled workers and securing jobs in the long term.

Climate protection is not possible without steel. Whether in the gearboxes of wind turbines, in the production of primary materials for solar cells, in electric cars or in hydrogen technology - essential components are made of BGH stainless steel. Innovative technologies made from our primary materials thus avoid thousands of tonnes of CO2 every year.
As an electric steel plant, we play a central role in the circular economy. With a scrap input of over 80 %, valuable resources are conserved and long transport routes from mining areas all over the world are avoided. Compared to the blast furnace route, around 70 % of CO2 emissions per tonne of crude steel are already saved.

Against the backdrop of global warming, we see de-industrialisation and the relocation of production to (non-European) countries as counterproductive. Sustainable climate protection only works with competitive products and under fair economic policy conditions that can be planned for the long term.

Sustainability begins with BGH steel

Conserving resources through circular economy

Stainless steel is often an unconscious part of our daily lives - without it, no electric toothbrush, no airbag and no wind turbine would work. But where does the steel come from and how sustainable and resource-conserving is its production?

Steel can be recycled an infinite number of times without any loss of quality. In our electric arc furnaces, the collected and sorted steel scrap is melted down into new, high-quality BGH stainless steel - only energy and a small proportion of alloying elements need to be added to this process from outside.
At BGH, we use more than 80 % scrap from the steel recycling industry as a base material. We re-melt locally collected, processed and sorted steel scrap as well as our own production waste in order to keep transport routes as short as possible and avoid emissions.
Melting takes place in state-of-the-art electric arc furnaces. Each tonne of stainless steel scrap thus saves at least 1.35t CO2 compared to the production of new steel in the classic blast furnace process.1.

The more sustainably the energy required for steel production and processing is generated, the "greener" the end product. We are working intensively to reduce our CO2 footprint in order to be able to supply you with "green steel".

Sustainability through quality

Steel is not a disposable item - the high quality of our stainless steels enables a long service life of the end product at the customer's premises and thus contributes to the sustainable use of our resources.

Sustainability through responsibility

Stainless steel only acquires its special properties such as corrosion or temperature resistance through the addition of alloying elements such as chromium, nickel or molybdenum. When purchasing the alloying elements we require, we refrain from using conflict minerals (Dodd-Frank Act).
In addition, all substances for which the BGH companies have a registration obligation comply with the currently valid REACH regulation or are RoHS-compliant.

1Hiebel, M,; Nühlen, J.: Technische, ökonomische , ökologische und gesellschaftliche Faktoren von Stahlschrott (Zukunft Stahlschrott), Fraunhofer-Insitut für Umwelt-, Sicherheits- und Energietechnick UMSICHT (Hrsg.), Onlinefassung der Kurzstudie im Auftrag der Bundesvereinigung Deutscher Stahlrecycling- und Entsorgungsunternehmen e.v. (BDSV), Oberhausen, November 2016

The trade in steel and foundry scrap, ferroalloys and metals as well as the sorting and processing of the various scrap qualities is handled by RPS Rohstoff-, Press- und Schneidbetrieb Siegen GmbH as a company of the BGH Group.

BGH climate targets and SBTi

BGH commits to the Science Based Targets Initiative (SBTi) in 2022

The Science Based Targets Initiative (SBTi) builds on the goals of the Paris Agreement to limit global warming to 1.5 °C. It provides a clearly defined pathway for companies to reduce greenhouse gas emissions. It gives companies a clearly defined pathway to reduce greenhouse gas emissions, helping to prevent the worst impacts of climate change and safeguard business growth.
We have committed to setting science-based climate targets by 2022 and submitting them to the SBTI for validation.


Our CO2e-Footprint

Based on the Green House Gas (GHG) protocol, we have calculated our CO2 emissions according to Scope 1, 2 and 3. Scope 1 stands for direct emissions from production, while Scope 2 takes into account indirect emissions, e.g. from energy suppliers. Scope 3 considers the emissions from upstream and downstream value creation, e.g. through transport (and production of the purchased preliminary products and services as well as further processing of the products sold).
By calculating the Company Carbon Footprint (CCF), we have determined our status quo for the year 2021 (market-based approach):

  • Scope 1 Emissions: 135 kt CO2e
  • Scope 2 Emissions: 170 kt CO2e
  • Scope 3 Emissions: 452 kt CO2e

Mandatory targets

We commit to reduce our Scope 1 and 2 CO2 emissions by 42% by 2030 compared to the 2021 baseline.
We will reduce our Scope 3 emissions by 25% by 2030 compared to the 2021 baseline.







CO2-Reduction measures

(Excerpt BGH CO2-Roadmap 2030)

By combining inductive reheating directly after forming with a single-bar quenching line (Fig.), an additional heating step was eliminated for selected grades.
Further energy savings were achieved by modernising our preheating furnaces and optimising the use of waste heat.

We already cover part of our electricity needs with locally generated green electricity from photovoltaics - like here at the BGH Feindraht site in Nettetal (picture).
Further photovoltaic plants are under construction (BGH Lugau) or in planning.

By using single-bar induction heating plants (photo) instead of classic gas-fired preheating furnaces in the heat treatment production area, we were able to reduce the share of natural gas in favour of electrical energy.
The conversion of our internal transport to electric mobility is also an important component in reducing our CO2 emissions.

By combining inductive reheating directly after forming with a single-bar quenching line (Fig.), an additional heating step was eliminated for selected grades.
Further energy savings were achieved by modernising our preheating furnaces and optimising the use of waste heat.

We already cover part of our electricity needs with locally generated green electricity from photovoltaics - like here at the BGH Feindraht site in Nettetal (picture).
Further photovoltaic plants are under construction (BGH Lugau) or in planning.

By using single-bar induction heating plants (photo) instead of classic gas-fired preheating furnaces in the heat treatment production area, we were able to reduce the share of natural gas in favour of electrical energy.
The conversion of our internal transport to electric mobility is also an important component in reducing our CO2 emissions.


Our steel as material for the energy transition

The energy transition without steel from the BGH? Hard to imagine!

Stainless steel is undoubtedly THE material for building wind power plants, turbines, generators and similar energy technology systems. This applies both to the construction of new plants for CO2-neutral energy generation and to the increase in efficiency of existing plants through modernisation.
High-quality steels with increasingly better properties are needed which are precisely matched to the subsequent application profile

We supply steels for the

  • direct application in the end product: BGH steels are found, for example, in the impellers of hydroelectric power plants or pumps and fittings for processing biofuels or hydrogen.
  • indirect application in the manufacturing process: BGH steels can be found in machines and tools used to manufacture energy transition products, e.g. in extruder screws for battery material production for electric cars.

The performance and efficiency of modern wind turbines is a good example of the generation of green electricity using the potential of modern and high-purity gear steels.
Especially for offshore wind farms, where repairs are associated with enormous costs, the reliability of each individual component is of utmost importance.

The BGH case-hardened steel 1.6587 convinces with its low content of phosphorus, sulphur and oxygen. Whether as a bar up to 950 mm in diameter or as an open-die forging, BGH 6587's high microscopic purity makes it the right choice for highly stressed shafts, gear parts and gear wheels.

Increasingly effective Pelton, Kaplan or Francis turbines in pumped-storage or run-of-river power plants make a firm contribution to reliable and climate-neutral electricity generation.

BGH manufactures pre-turned discs or perforated discs with diameters of up to 2000 mm for the production of turbine runners, which are then milled out of the disc in one piece.
The BGH material 1.4313 is specially optimised for this application and is characterised by high wear resistance combined with good toughness and excellent machinability.

Whether in the electric brake booster (e-booster), as a component of the automatic tailgate locking system or as a drive shaft for electric motors (e-axis), in auxiliary units or in the shaft of an e-bike, special steels from BGH can be found everywhere. Our steels meet the highest demands in terms of strength, corrosion resistance, purity, temperature resistance, material density and microstructure homogeneity.

Edelstähle in höchster Qualität von BGH sind aus alternativen Antriebssystemen nicht mehr wegzudenken. Sie finden sich sowohl im Brennstoffzellenantrieb als auch in der Direktverbrennung von Wasserstoff (Wasserstoffmotor).

Mit ihrer Korrosions- und Druckbeständigkeit garantieren sie einen zuverlässigen und wartungsarmen Betrieb von Leitungs- und Filtersystemen, Tank- und Steuerventilen, Pumpen oder Luftverdichtern.
Weitere Einsatzgebiete sind Verbindungselemente sowie das Einspritzsystem von Wasserstoffmotoren und die zugehörige Drucksensorik.

The performance and efficiency of modern wind turbines is a good example of the generation of green electricity using the potential of modern and high-purity gear steels.
Especially for offshore wind farms, where repairs are associated with enormous costs, the reliability of each individual component is of utmost importance.

The BGH case-hardened steel 1.6587 convinces with its low content of phosphorus, sulphur and oxygen. Whether as a bar up to 950 mm in diameter or as an open-die forging, BGH 6587's high microscopic purity makes it the right choice for highly stressed shafts, gear parts and gear wheels.

Increasingly effective Pelton, Kaplan or Francis turbines in pumped-storage or run-of-river power plants make a firm contribution to reliable and climate-neutral electricity generation.

BGH manufactures pre-turned discs or perforated discs with diameters of up to 2000 mm for the production of turbine runners, which are then milled out of the disc in one piece.
The BGH material 1.4313 is specially optimised for this application and is characterised by high wear resistance combined with good toughness and excellent machinability.

Whether in the electric brake booster (e-booster), as a component of the automatic tailgate locking system or as a drive shaft for electric motors (e-axis), in auxiliary units or in the shaft of an e-bike, special steels from BGH can be found everywhere. Our steels meet the highest demands in terms of strength, corrosion resistance, purity, temperature resistance, material density and microstructure homogeneity.

Edelstähle in höchster Qualität von BGH sind aus alternativen Antriebssystemen nicht mehr wegzudenken. Sie finden sich sowohl im Brennstoffzellenantrieb als auch in der Direktverbrennung von Wasserstoff (Wasserstoffmotor).

Mit ihrer Korrosions- und Druckbeständigkeit garantieren sie einen zuverlässigen und wartungsarmen Betrieb von Leitungs- und Filtersystemen, Tank- und Steuerventilen, Pumpen oder Luftverdichtern.
Weitere Einsatzgebiete sind Verbindungselemente sowie das Einspritzsystem von Wasserstoffmotoren und die zugehörige Drucksensorik.

Product Carbon Footprint

The CO2 footprint (Product Carbon Footprint) of our products can be calculated individually on customer request and provided broken down by Scope 1, 2 and 3.

Of course, we also adhere to the common international standards such as ISO  14067 and provide a detailed description of the calculation method in addition to the absolute values.


For further information, please contact your responsible BGH contact person.

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