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Sustainability report 2024

E1 Climate change

Strategy

ESRS 2 SBM-3, E1-1

Material impacts, risks and opportunities (IROs) 
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Climate change adaptation
Impact materiality Downstream value chain Positive impact Time horizon
  • The use of construction machinery and equipment can mitigate or remedy the severe impacts of climate change, such as flooding and extreme weather events, both preventively and acutely
  • The use of construction machinery and equipment during disasters and crises can preserve or restore the livelihoods of affected communities and individuals. This can positively impact the private environment, infrastructure, public life, and the workplace
Long-term
Financial materiality Risk
  • High costs of climate change adaptation measures (e.g., building protection, energy efficiency, and various technologies)
  • Loss or abandonment of, or the need to adjust business models due to negative changes in earnings or liquidity
  • Loss or abandonment of, or the need to adapt the site structure due to excessive climate risks
Long-term
Opportunity
  • Increased resilience and reputation: When adaptations to climate change are successfully implemented, risks are reduced, and competitive advantages are achieved
  • Adaptation to climate change can be incorporated into business models, thus increasing sales and earnings (e.g., using construction machinery for flood protection)
Long-term
Climate change mitigation
Impact materiality Upstream value chain Negative impact Time horizon
  • Currently, extracting raw materials for steel, metal, and plastic products along the supply chain requires a lot of fossil energy and leads to high greenhouse gas emissions
Long-term
Own operations Negative impact Time horizon
  • We need energy to operate our sites, such as for heating and electricity for electrical systems in workshops, production halls, and administration buildings, as well as for our vehicles, such as service vehicles that drive to customers' or construction sites for maintenance work and company vehicles for sales. This releases greenhouse gas emissions. Additionally, water is withdrawn (e.g., for washing construction machinery and equipment), and waste is produced (e.g., sludge and waste oil)
Long-term
Downstream value chain Negative impact Time horizon
  • Using the products we sell or rent out requires energy, which causes greenhouse gas emissions. Transporting our products, such as machines and systems, to customers is also energy-intensive
Long-term
Positive impact Time horizon
  • Our consulting and training services promote efficient product use, which increases energy efficiency and reduces greenhouse gas emissions. Our sustainable products and services can also help reduce or avoid emissions and pollution. For example, Zeppelin Power Systems conducts fuel cell research
Long-term
Financial materiality Risk
  • Increases in operating costs: Companies may face rising operating costs as they adapt to changing environmental conditions
  • Insurance costs: Companies may face higher insurance costs or exclusions, especially if they are affected by extreme weather events, such as storms, floods, or fires
  • Production downtime and supply chain risks: Extreme weather events, such as floods or forest fires, can hinder or halt production. Climate change can affect supply chain stability, as natural disasters or extreme weather conditions can hinder the transportation of raw materials and products
  • Legal risks: Companies could face legal risks and liability claims related to environmental regulations and potential damages connected to climate change
Long-term
Opportunity
  • Creation of new markets and products, such as switching to renewable energies, alternative drives, and climate-friendly energy solutions
  • Customer preferences and market demand: Changes in consumer preferences and demand for climate-friendly products and services can impact a company's sales and market position
  • Employee preferences and employer attractiveness: Changes in the preferences and requirements of (potential) employees for responsible/sustainable employers can impact the retention of skilled workers and filling vacancies
Long-term
Energy
Impact materiality Upstream value chain Negative impact Time horizon
  • Using fossil fuels can exacerbate climate change and its negative consequences for society, such as social tensions and global imbalances
Long-term
Own operations Negative impact Time horizon
  • Essentially, the consumption of electricity and heat for operating our sites and vehicle fleet is fuel consumption. Reducing fuel consumption is the most effective way to reduce greenhouse gas emissions, accounting for around 60 % of total emissions. Using other non-renewable energies also leads to greenhouse gas emissions
Long-term
Positive impact Time horizon
  • We can reduce energy consumption and greenhouse gas emissions by using green electricity, expanding renewable energies, electrifying and constantly renewing our vehicle fleet, and implementing energy efficiency measures
Long-term
Downstream value chain Negative impact Time horizon
  • Transporting our products to customers (e.g., construction sites) and operating them results in high electricity or fuel consumption. Depending on the energy source, this leads to emissions of greenhouse gases and pollutants
Long-term
Positive impact Time horizon
  • Our consulting and training services promote efficient product use, which increases energy efficiency and reduces greenhouse gas emissions. Our sustainable products and services can also help reduce or avoid emissions and pollution. For example, Zeppelin Power Systems conducts fuel cell research
Long-term
Financial materiality Risk
  • Margins are under increasing pressure due to rising energy and CO2 prices (e.g., in purchasing)
  • Higher prices can negatively impact the profitability of business models, making investments in other technologies necessary
Long-term
Opportunity
  • Increased demand for our products in new and retrofit energy projects
  • Subsidies for promoting renewable energy
Long-term

The Zeppelin Group considers the impacts, risks, and opportunities of climate change, as well as adaptation to its consequences, particularly when investing in new assets, commencing business activities in new markets and countries, and as part of continuous development. The Group carries out climate risk assessments at regular intervals to evaluate acute and chronic risks, taking into account extreme weather conditions and events, in order to avoid negative effects on assets or business relationships.

Zeppelin's goal of achieving greenhouse gas neutrality in Scope 1 and 2 areas by 2030 is based on the Paris Climate Agreement's scenario of limiting global warming to 1.5°C. Key strategies for achieving greenhouse gas neutrality in our business operations include switching to green electricity, using self-generated electricity from photovoltaic modules, promoting e-mobility, and renovating our properties to improve energy efficiency. Zeppelin is also working with partners along the value chain to implement further decarbonization measures, particularly by adapting its product and service portfolio. The transition plan, sustainability targets, and CSR investments have been approved by the Group Management Board and Supervisory Board and are regularly monitored.

Management of impacts, risks and opportunities

Identification and assessment of the main climate-related impacts, risks and opportunities

ESRS 2 SBM-3, ESRS 2 IRO-1, E1-1, E4.17, E4-1.13

In 2024, the Zeppelin Group conducted a thorough risk analysis and assessment as part of the double materiality assessment (see ESRS 2) and on climate-related transition risks1.

Transition climate risks

These risks and opportunities are associated with the transition to an environmentally friendly, carbon-free economy and can be divided into different categories. Zeppelin identified regulatory adjustments, such as new or stricter laws and requirements, as well as higher operating and investment costs due to necessary technical upgrades to systems and equipment or the energy-efficient renovation of existing properties, as risks and areas for action. The transformation of the economy is also expected to alter existing sales markets, decreasing the demand for fossil fuel-based products in the long term while increasing the demand for environmentally friendly, low-emission products and services. These risks and opportunities can affect Zeppelin's business activities in various ways and are therefore considered in strategic planning.

Figure 13 : Process for assessing transition risks for the Zeppelin Group
Figure 13 : Process for assessing transition risks for the Zeppelin Group

The transition risk analysis is based on the assumption that net zero emissions are achieved and that the Paris Agreement is complied with. This is possible under scenarios SSP1-1.9 and SSP1-2.62. These scenarios were used to identify transition risks within risk categories. The identified risks were then assessed and consolidated using the risk methodology. Specific short-, medium-, and long-term time series were defined to determine time horizons. The short- and medium-term periods were based on the CSRD guidelines, and the long-term period was based on the year 2050 in accordance with the Paris Climate Agreement. A PESTEL analysis was conducted to examine, classify, and systematically evaluate the factors influencing the Zeppelin Group. These factors are divided into six categories: political, economic, socio-cultural, technological, ecological-geographical, and legal.

The results of the transitional risk analysis are presented below. The analysis considers the probability of occurrence and financial impact (severity), taking into account the respective time horizon. There are no transitional risks to Zeppelin's business, meaning that respective business and corporate activities can continue. For high-risk areas, appropriate measures to ensure the company's long-term success are determined and implemented as part of the strategy work, taking into account the respective scope of influence.

Figure 14 : Climate-related risk matrix
Figure 14 : Climate-related risk matrix
Analysis of climate-related transition risks
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No. Description Type Time horizon Likelihood (gross) Financial impact (gross)
4 Restrictions on fossil fuel-run vehicles restrict the operational capability and modernization efforts of the service fleet Transition risk Long-term Highly likely Major
8 Shifting market preferences towards more eco/emission friendly machines/construction processes Transition risk Long-term Highly likely Major
11 Limited construction activity due to the overall economic situation Transition risk Short-, medium- and long-term Likely Major
14 Positive brand perception and customer loyalty Opportunity Long-term Likely Major
22 Supply chain adversities with regard to the availability of pioneering technologies by single suppliers Transition risk Medium- and long-term Likely Moderate
1 Increasing carbon prices in Europe with regard to own business activities Transition risk Long-term Highly likely Minor
6b Decreasing capital costs due to high ESG performance increase company value Opportunity Medium- and long-term Highly likely Minor
20b Improved recruitment due to strong ESG performance Opportunity Short-, medium- and long-term Likely Minor
3 Fines and penalties for non-alignment with GHG-emission-related requirements Transition risk Long-term Moderately likely Minor
21 Restriction of required, high-emission materials and products Transition risk Medium- and long-term Moderately likely Minor
10 Significant deviations from proclaimed GHG emission reduction targets Transition risk Medium- and long-term Moderately likely Minor
12 Inadequately trained staff for new products and technologies Transition risk Long-term Moderately likely Minor
20a Hampered recruitment due to poor ESG performance Transition risk Short-, medium- and long-term Moderately likely Minor
6a Increasing capital costs due to low ESG performance reduce company value Transition risk Medium- and long-term Unlikely Minor
9 Dependency on suppliers limits progress towards reaching own emission targets Transition risk Long-term Unlikely Minor
2 Increasing carbon prices in (parts of) the supply chain Transition risk Medium- and long-term Highly likely Superficial
5 Trade restrictions in relation to climate mitigation measures Transition risk Short-, medium- and long-term Highly likely Superficial
13 Unreliable energy supply increases price volatilities and may cause business disruptions Transition risk Medium- and long-term Likely Superficial

Physical climate risks

Physical climate risks can arise from the direct consequences of climate change. Examples include an increase in extreme weather events, such as flooding, forest fires, and dry and drought periods. Depending on the respective macro and micro situations, these environmental events can affect each Zeppelin site differently in terms of the probability and extent of damage. Long-term changes, such as rising average temperatures, as well as indirect risks, such as the limited functionality of international supply chains due to local environmental damage, are also considered. At the same time, physical climate risks present opportunities for Zeppelin because these risks require appropriate structural countermeasures, such as expanding flood protection, irrigation, and drainage systems, as well as renovating buildings to be more energy efficient. A more comprehensive analysis of climate-related physical risks is planned for subsequent years.

Resilience analysis

Through sustainable corporate management, the early consideration of market and technological developments, and the consideration of potential opportunities and risks for its business models and corporate development, the Zeppelin Group ensures a high level of resilience to potential changes and crises. The results of the resilience analysis reveal the primary transition, physical, and systemic risks to Zeppelin throughout its entire value chain and business operations. The consequences for society and the environment are also presented.

Results of the Zeppelin Group's resilience analysis
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Upstream value chain Own operations Downstream value chain
Transition risks Climate-related transition risks due to the transformation of the economy towards sustainable, low-emission economic sectors
  • Consequences: Technology risks, i.e., existing products could be displaced by environmentally friendly products, which significantly impacts the success of a company's business model
  • Consequences: An increase in market prices due to a shortage of raw materials can impact business development and customer relationships
  • Consequences: Increasing regulations can significantly impact your business model. For example, there is the potential for a ban or tightening of exhaust emission values for combustion engines in construction machinery and shipping
  • Consequences: Reputational risks can arise if business models are perceived as harmful to the environment
  • Consequences: Increasing regulation and technological changes can lead to shifts in customer needs and market requirements, creating opportunities and risks
  • Consequences: Reputational risks may arise from business relationships with partners who carry out environmentally harmful projects
Physical risks Acute natural events, such as extreme weather events, floods, earthquakes, and droughts
  • Potential harmful impacts on people, indigenous peoples, assets, or environmental resources (social, economic, and environmental impacts)
  • Potential disruption of direct and indirect supplier relationships due to failure, delays, shortages, and price increases
  • Potential negative impact on business models (lack of resources, materials, etc.)
  • Potential harmful impacts on employees, buildings, infrastructure, products, and production/service provision, as well as environmental resources
  • Increased maintenance, repair, insurance, operating, and investment costs; loss of sales and earnings
  • Potential harmful impacts on people, indigenous peoples, assets, or environmental resources (social, economic, and environmental impacts)
  • Potentially increased need for restoration and renaturation products and services
  • Potential disruption to customer relationships (e.g., defaults, cancellations, and unwillingness to pay)
Chronic natural developments, such as long-term water shortages in certain regions, advancing air pollution, and rising sea levels
  • Consequences: Potential changes to the direct and indirect supply chain are necessary to maintain the business model in the event of a loss of suppliers or resources
  • Consequences: Potential impact on employees, buildings, infrastructure, and site structure
  • Consequences: Potentially increased need for climate adaptation and prevention measures (provision of suitable products and services)
  • Consequences: Potential change in customer data (e.gl, relocation, needs)
Systemic risks
  • Default of a market participant
  • Highest risk in the event of default or loss of the business partner Caterpillar
  • Consequences: Potentially serious impact on business model (in both the supply chain and customer relationships)
  • Complete elimination of the financial market
    Consequences: Potential lack of financing options for company management and development

Policies and actions

ESRS 2 MDR-P, ESRS 2 MDR-A, E1-1.16, E1-2, E1-3, E1-4.34

As part of its CSR strategy, the Zeppelin Group has set a greenhouse gas (GHG) neutrality goal for its business operations (Scope 1+2). This target and other relevant climate change targets are supported by Group guidelines, including "Sustainability," "CO2 neutrality in the real estate sector," and "Cascading of CSR targets," as well as a modernization strategy for property locations (see ESRS 2). Decarbonization and climate change adaptation measures in the downstream value chain focus on integrating sustainable products and services into the portfolio. In the upstream value chain, the Group promotes close cooperation with suppliers, partners, and service providers, and has implemented a code of conduct that explicitly addresses minimizing emissions.

Actions related to climate change
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Goal Key action/decarbonization lever (own operations) Expected results/contribution to target achievement by 2030 Scope (1/2/3) Time horizon Remedial measures
(if relevant)
GHG neutrality in Scope 1+2 (own operations) Locations (property): Energy-efficient renovations and new buildings that meet the GHG neutrality standard Contribution to achieving the GHG neutrality target: reduction of around 25 % 1+2 2030 Not relevant
Locations (owned and rented): Use of renewable energies, such as PV systems, heat pumps, green electricity, and district heating Contribution to achieving the GHG neutrality target: reduction of around 10 %. 1+2 2030 Not relevant
Own vehicle fleet: Expansion of electromobility and continuous renewal Contribution to achieving the GHG neutrality target: reduction of around 65 %. 1+2 2030 Not relevant
Figure 15 : Decarbonization along Zeppelin’s value chain
Figure 15 : Decarbonization along Zeppelin’s value chain

The following climate-related measures are associated with significant investment costs or operating expenses:

Climate-related investment expenditure
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Key action Time horizon Total necessary investment and operating expenses Funds used during the reporting year (in euros) Future investment and operating expenses
A GHG-neutrality strategy involving the expansion of electromobility, the construction of new GHG-neutral buildings, and the energy-efficient renovation of owner-occupied properties 2030 N/A 3.951.255 N/A

Progress 2024

General development
  • Total energy consumption decreased by 2.7 % compared to the previous year, reaching 178,873 MWh.
  • Greenhouse gas emissions (Scope 1+2, market-based) decreased by 7.1 % compared to the previous year, reaching 38,252 tons of CO2 equivalents.

Locations (property): Energy-efficient renovations and new buildings to the GHG neutrality standard

Zeppelin locations
Markkleeberg, Germany
Markkleeberg, Germany
Markgroningen, Germany
Landvetter, Sweden
Freiburg, Germany
Eschweiler, Germany
Erfurt, Germany

Locations (owned and rented): Use of renewable energies (PV systems, heat pumps, and green electricity)

Own vehicle fleet: expansion of electromobility

Solar panels on the facade of the Ludwig Dürr Hall at the Friedrichshafen site, Germany
New PV plant in Bratislava, Slovakia

Value chain: expansion of the product and service portfolio

Zeppelin Group's sustainable products and services
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Product/service Sustainability criterion Description SBU
Caterpillar Certified Rebuilds Lifecycle extension Zeppelin's Certified Rebuild program doubles the service life of Cat machines. This process prevents emission-intensive production, reduces the consumption of raw materials and resources, and saves on landfill costs Construction Equipment
Caterpillar Remanufacturing Lifecycle extension As part of the Cat AT program, valuable returned parts are thoroughly reconditioned and restored to like-new condition for reuse. Consequently, the Cat remanufacturing program at Zeppelin decreases emissions and resource consumption Construction Equipment
Premium Pre-owned Engines & Gensets Lifecycle extension Zeppelin Power Systems Used Power offers used and reconditioned generators worldwide. Reusing reduces greenhouse gas emissions and saves material and energy for producing new gensets. Almost the entire Cat product portfolio can be equipped with an SCR system for exhaust gas treatment, meeting IMO Tier III and EPA TIER 4 emission regulations Power Systems
Large heat pumps Optimization of energy consumption Heat pumps are climate-friendly, fossil fuel-independent, and highly efficient. They enable the recovery of heat for heating buildings and providing hot water. Retrofitting a CHP unit with a heat pump increases efficiency by making better use of waste heat. Combining them with renewable energies reduces costs and greenhouse gas emissions. Zeppelin serves as a general contractor for the realization of customer-specific projects Power Systems
Efficient Cat motors Optimization of energy consumption The Cat C13D is more powerful, economical, quiet, and certified worldwide for all emission levels. Thanks to state-of-the-art technology, fuel savings of up to 10 % are possible. The Cat C13D is also compatible with alternative fuels, such as HVO Power Systems
XE drives and electric machines Conservation of resources XE drives are particularly efficient thanks to hybridization with an electric drive. Fully electric machines from Caterpillar are already available or will soon be launched on the market Construction Equipment
Zeppelin Repair Center Conservation of resources The work carried out by the Zeppelin Repair Centers enables the reuse of components, thereby reducing greenhouse gas emissions and waste. Additionally, the consumption of fresh water, energy, and raw materials is reduced Construction Equipment
Rental+ Sharing Economy Conservation of resources The Rental+ app from Zeppelin minimizes transportation of construction machinery and equipment to and from construction sites. It does this by offering a pool of machines at the construction site. This pool can then be easily accessed by different companies via the app Rental
Tire recycling Conservation of resources The goal of tire manufacturers is to produce tires from 100 % sustainable raw materials by 2050. Zeppelin founded the Zeppelin Sustainable Tire Alliance with technology partners in 2023 to support this goal. All partners complement each other technologically and develop new technologies together Plant Engineering
Plastic recycling Conservation of resources Zeppelin Systems has a strong presence in many fields:
  • Integrated process design for bulk solids processing
  • Material handling, homogenization, separation, deodorization, mixing, and dosing
  • International network of experts and technology partners
  • Mechanical, solvent-based, and chemical recycling
Plant Engineering
Digital solutions - AEC Reduction of failure and downtime AEC (Active Equipment Connect) is Zeppelins' comprehensive solution for recording and digitizing engine and system data. With AEC, the service life of engines and systems can be extended, and fuel consumption and emissions can be reduced. Impending failures can be detected and avoided early thanks to permanently available data. The digital connection and networking of all engines and systems simplifies fleet management and allows for foresight in planning service calls Power Systems
Ballast water treatment systems Reduction of environmental and ecosystem impact Ballast water is essential for modern shipping because it ensures the balance and stability of unladen ships. Zeppelin offers shipyards and ship owners system solutions for ballast water treatment. These solutions range from complete planning and realization of adapted modules to turnkey solutions. UV lamps neutralize small, potentially invasive organisms in the water. Self-cleaning filters remove larger organisms and particles Power Systems
Holistic solutions Reduction of emissions/ defossilization, conservation of resources, increase in intensity of use Zeppelin Rental's ecoSolutions covers individual components as well as holistic solution packages. These include green energy solutions, such as green electricity, energy management in accordance with ISO 50001, PV consulting, and mobile charging solutions; waste management; and modular space solutions Rental
Battery technology Emission reduction/ defossilization Zeppelin Systems has many market references from implemented projects. Zeppelin can supply the complete material handling chain for battery production, starting with mixing technology. Zeppelin actively participates in partnerships and research projects to remain an important system supplier and expand its value chain in this rapidly growing market Plant Engineering
Storage of CO2 Emission reduction/ defossilization However, it will not be possible to stop global warming simply by reducing new CO₂ emissions. New technologies, such as CO₂ storage (direct air capture, DAC), are necessary. This process involves extracting and binding CO₂ from the air through a series of chemical reactions. The extracted CO₂ can then be stored or further processed. Zeppelin Systems is the partial supplier for a large-scale DAC plant in the USA. Zeppelin supplies the engineering and material handling equipment Plant Engineering
Solar panels and microgrids Emission reduction/ Defossilization A microgrid is a small-scale power supply network that can be connected to the public power grid or operate independently. Several generation plants and consumers are connected to a microgrid. Zeppelin offers Cat photovoltaic modules, energy storage systems, and converters. Cat solar panels can be integrated into existing systems, such as combined heat and power (CHP) or emergency power systems. Cat microgrids provide cost-effective power for grid-connected and off-grid systems, ensuring the optimal delivery and storage of energy sources Power Systems
Fuel cells - PEMFC power generators Emission reduction/ defossilization A Proton Exchange Membrane Fuel Cell (PEMFC) is a low-temperature fuel cell mostly used for mobile applications with dynamic loads. Zeppelin Rental and Power Systems are collaborating on the development and introduction of the fuel cell generator. It is a hybrid system that includes a battery and control system. Power Systems is responsible for development, design, and system integration. A pilot application will be tested at Zeppelin Rental Power Systems, Rental
Alternative fuels Emission reduction/ defossilization Many Cat brand engines can operate using alternative fuels that produce fewer pollutants and greenhouse gases. These include biodiesel and HVO (hydrotreated vegetable oils), as well as methanol and hydrogen. These fuels are considered key for decarbonizing the shipping industry Construction Equipment, Rental, Power Systems
Further information
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SBU Construction Equipment www.zeppelin-cat.de/produkte/
SBU Rental www.zeppelin-rental.de/ecosolutions
SBU Power Systems www.zeppelin-powersystems.com/de/de/unternehmen/nachhaltigkeit/
SBU Plant Engineering www.zeppelin-systems.com/de/de/produkte-loesungen/loesungen/
Impressions from the “zero emission | emission-free construction site” action day in July 2024 (Zeppelin Rental x Wacker Neuson)

Targets and metrics

ESRS 2 MDR-T, E1-1.16, E1-4

The following climate change targets were set in consultation with the Group Management Board and in accordance with Group policies.

Targets related to climate change
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Goal Target value KPI Scope Base year Base value Time horizon 31.12.2024 Change to
BY PY
GHG neutrality in ongoing business operations (Scope 1+2) 0 t CO2e GHG emissions Scope 1+2 (market-based) in tons CO2 equivalents Group 2022 44,479 t CO2e 2030 38,252
t CO2e
-14.0 % -7.1 %
Milestone: Reduce GHG emissions by 46 % (Scope 1+2) 24,019 t CO2e GHG emissions Scope 1+2 (market-based) in tons CO2 equivalents Group 2022 44,479 t CO2e 2027
Reduction of 9.5 % in energy consumption (excluding mobility) per million euros in sales 19.3 MWh/EURm Energy consumption (excluding mobility) per million euros in sales Group 2022 21.3 MWh/EURm 2027 19.1
MWh/EURm
-10.3 % -3.0 %
Milestone: Reduce energy consumption by 1 % per year 75,800 MWh Total electricity and heat consumption in MWh Germany Previous year 76,566 MWh 2025 71,511 MWh -6.6 %

Metrics: Energy

ESRS 2 MDR-M, E1-5

The balance sheet limit for determining energy consumption corresponds to the scope of consolidation for non-financial reporting. The energy consumption of each location is divided into its respective energy sources, such as gas, heating oil, or electricity, and recorded in software for non-financial indicators. In the event that the recording of energy consumption is not feasible, such as in instances where flat-rate service charge invoices are utilized or the space is rented to multiple users, the system will make simplifications and provide appropriate notes.

Energy consumption and mix
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Type of energy 2023 2024
(1)    Consumption of natural/liquid/propane gas (MWh) 32,244 31,857
(2)    Consumption of district/local heating (MWh) 10,165 8,662
(3)    Heating oil consumption (MWh) 2,574 2,321
(4)    Diesel consumption (heating) (MWh) 136 0
(5)    Hard coal consumption (MWh) 0 41
(6)    Total heat consumption (MWh) (sum of lines 1 to 5) 47,119 42,881
(7)    Electricity consumption (MWh) 28,845 27,571
(8)    Electricity consumption (vehicle fleet) (MWh) 602 1,059
(9)    Total electricity consumption (MWh) (sum of lines 7 to 8) 29,447 28,630
(10)  Diesel consumption (vehicle fleet + other) (MWh) 97,903 97,873
(11)  Gasoline consumption (MWh) 7,694 6,741
(12)  Consumption of HVO (Hydrotreated Vegetable Oil) (MWh) 9 23
(13)  Ethanol consumption (MWh) 59 209
(14)  CNG (compressed natural gas) consumption (MWh) 31 0
(15)  Total fuel consumption (MWh) (sum of lines 10 to 15) 105,696 104,846
(16)  Total consumption of renewable energies (MWh) 1,486 2,516
Total energy consumption (MWh) (sum of lines 6, 9, 15 and 16) 183,748 178,873
 
Energy consumption electricity and heat (MWh) (sum of lines 6 and 9) 76,566 71,511
Energy consumption excluding mobility (MWh) (sum of lines 6, 7, 11 and 16) 77,314 72,968
Sales revenue (gross) (in thousand euros) 3,934.7 3,819.6
Energy consumption excluding mobility per million euros in sales 19.6 19.1
Energy consumption by country (MWh)
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Country 2024
Armenia 2,804
Austria 6,040
Belgium 283
Brazil 725
China 449
Czech republic 11,335
Denmark 8,987
Estonia 128
France 145
Germany 112,386
Great Britain 221
Greenland1 0
India 329
Italy 489
Poland 3,575
Russia 2,831
Saudi Arabia 224
Singapore 23
Slovak Republic 3,408
South Korea 15
Sweden 16,878
Switzerland 53
Tajikistan 146
Turkmenistan 627
Ukraine 5,350
USA 563
Uzbekistan 857
Zeppelin Group total (sum of all countries) 178,873
1 Data assigned to Denmark.

To ensure a level of comparability, energy intensity data for the 2024 reporting year will continue to be reported in accordance with previous years and not according to the ESRS.

Energy intensity
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Metric 2023 2024
Energy intensity per employee 
Total energy consumption per employee (MWh/FTE)
18.4 17.7
Energy intensity per gross sales revenue
Total energy consumption per million euros gross sales revenue (MWh/EURm)
46.7 46.8

Metrics: Greenhouse gas emissions

ESRS 2 MDR-M, E1-4.34, E1-6, E1-8.62

All fully consolidated companies of the Zeppelin Group are included in the calculation of greenhouse gas emissions. The basis for calculating greenhouse gas emissions for both Scope 1 and Scope 2 is the energy consumption data of the respective locations. Each energy source is assigned a CO2 equivalent (CO2e), with country- or location-specific characteristics (e.g., electricity mix, contract content) taken into account to the greatest extent possible. Carbon dioxide equivalents are units of measurement that summarize various greenhouse gases (GHG) in one value. This summary is based on their respective contributions to the greenhouse effect compared to carbon dioxide (CO2). These units enable the comparison and quantification of the impact of different gases on climate change. Greenhouse gas emissions are calculated on both a market-based and a location-based basis. The emission factors required for conversion are maintained in central software so that GHG emissions are calculated automatically once the respective energy consumption has been entered. The emission factors used are regularly reviewed to ensure they are current and accurate, and any necessary corrections are made. The respective energy consumption is multiplied by the CO2 equivalent. The total emissions for each energy source are calculated to determine the carbon footprint of the site or, on a highly aggregated basis, the Group company or SBU. As part of the energy management system, metrics are periodically reviewed by our certification body (see ESRS 2). However, please note that greenhouse gas metrics are not yet validated by an external entity.

As part of the ongoing digitalization process, the Zeppelin Group began implementing smart meters at its German locations in 2024 with the objective of improving data availability and quality. A gradual conversion of further meters, both nationally and internationally, is planned for 2025.

Zeppelin calculated all Scope 3 emissions for 2023 in the reporting year. In accordance with the initial determination for 2022 (see Sustainability Report 2023), the objective was to enhance the data collection processes. "Use of our products" was confirmed as the most relevant category, accounting for around 91.5 percent of our Scope 3 emissions. No Scope 3 emissions were determined for the 2024 reporting year. As a result, greenhouse gas emissions will continue to be reported in the same manner as in previous years. They will not be reported in accordance with the ESRS for the time being, in order to enhance comparability.

Greenhouse gas emissions
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Retrospective Reporting year Milestones and target years
Base year 2022 Previous year 2023 2024 Change compared to previous year Change compared to base year 2027 2030
Greenhouse gas emissions Scope 1
GHG emissions Scope 1 (t CO2e) 36,843 35,709 34,422 -3.6 % -6.6 %  N/A  0
Greenhouse gas emissions Scope 2
GHG emissions Scope 2 Location-based (t CO2e)  15,199  14,762 11,747 -20.4 % -22.7 %  N/A 0
GHG emissions Scope 2 market-based (t CO2e)  6,916  5,463 3,830 -44.6 % -29.9 %  N/A 0
Total GHG emissions: Scope 1+2
GHG emissions Scope 1+2 Location-based (t CO2e)  52,041 50,471 46,179 -8.5 % -11.3 % N/A 0
GHG emissions Scope 1+2 Market-based (t CO2e)  44,479 41,172 38,252 -7.1 % -14.0 % 24,908 0
Greenhouse gas emissions by country [SK2] (Scope 1+2 | t CO2e)
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Country 2024
Location-based Market-based
Armenia 653 653
Austria 1,498 1,345
Belgium 65 65
Brazil 44 44
China 260 260
Czech republic 3,138 2,604
Denmark 2,282 1,698
Estonia 34 34
France 33 33
Germany 29,376 23,836
Great Britain 52 52
Greenland 0 0
India 205 156
Italy 117 109
Poland 898 896
Russia 801 801
Saudi Arabia 65 65
Singapore 9 9
Slovak Republic 919 919
South Korea 7 1
Sweden 3,482 2,466
Switzerland 12 10
Tajikistan 44 44
Turkmenistan 231 231
Ukraine 1,517 1,481
USA 187 187
Uzbekistan 250 250
Zeppelin Group total (sum of all countries) 46,179 38,252

To ensure a level of comparability, the greenhouse gas intensity for the 2024 reporting year will continue to be reported in the same manner as in previous years, rather than according to the ESRS.

Greenhouse gas intensity
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Metric 2023 2024
GHG intensity per employee
GHG emissions Scope 1+2 (market-based) per employee (t CO2e/FTE)
4.1 3.8
GHG intensity per gross sales revenue
GHG emissions Scope 1+2 (market-based) per million euros gross sales revenue (t CO2e/EURm)
10.5 10.0

The Zeppelin Group does not currently utilize an internal CO2 pricing system. A concept is currently being developed, and a possible introduction for the 2026 financial year is being examined.

Disclosures pursuant to Article 8 of Regulation (EU) 2020/852 (Taxonomy Regulation)

The EU taxonomy is a classification system for sustainable economic activities. The primary objective is to encourage sustainable investments to align with the goals of the EU Green Deal.

As part of the preparations for reporting in accordance with CSRD/ESRS and the EU Taxonomy Regulation, an interdisciplinary project team on the EU Taxonomy was established in 2023. This team conducted a kick-off and initial assessments of economic activities. In 2024, an implementation concept was developed and financial processes and systems were adapted. This allows for the efficient collection of necessary data during ongoing operations. Additionally, a dry run was conducted with the support of external consultants on the following metrics of the EU taxonomy:

The results are used for continuous improvement and preparation for future reporting.

1 Transition risks arise from the social and economic changes necessary for a transition to a low-carbon future. These risks may include political, regulatory, market, reputational, technological,
and legal risks.

2 According to ESRS E1, climate-related transition risks should be identified by considering at least one climate scenario consistent with limiting global warming to 1.5°C with no or limited
overshoot (see ESRS E1 IRO-1.20ci). An increase in the global average temperature of up to 1.6°C is considered limited, while an increase of up to 1.8°C is considered a strong overshoot. Both are
in line with the Paris Agreement. Therefore, SSP1-1.9 is the required scenario for the transition climate risk analysis. However, it is recommended that SSP1-2.6 be considered in conjunction with
SSP1.1-9 because the CO₂ trajectories implied in SSP1.1-9 are no longer considered realistic by the majority of the scientific community

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ESRS-Index