Skermjan's carbon reduction strategies offer government agencies and policymakers tailored solutions to meet their carbon reduction goals. By integrating carbon capture, pyrolysis, and smart energy systems, regions can sustainably reduce their ecological footprint and make a proactive contribution to climate protection.

Policy initiatives to promote climate-neutral industries include tax incentives, support programs and regulatory requirements. Skermjan's expertise and experience help government agencies and policy makers develop and implement effective policies and programs to support carbon neutral industries.

Carbon capture projects can greatly benefit from government support through grants, tax incentives, and other financial benefits. Skermjan’s expertise and experience assist government agencies and policymakers in developing and implementing suitable funding instruments to encourage the successful deployment of carbon capture projects.

Pyrolysis is a crucial part of climate protection policy as it offers an effective method of reducing CO₂ emissions and generating sustainable energy sources. Our expertise and experience support government agencies and policy makers to integrate and effectively utilize pyrolysis in their climate protection strategies.

Policies supporting sustainable energy in industrial areas include incentives for using renewable energy, support programs for energy-efficient technologies, and regulatory requirements to reduce CO₂ emissions. Our concept of “Carbon Removal Regions” can be applied to industrial zones. Skermjan’s expertise and experience assist government authorities and policymakers in developing and implementing effective policies and programs to promote sustainable energy in industrial areas.

Appropriate regulatory frameworks, including emission standards, certification procedures and legal regulations, are required for the implementation of CO₂ reduction measures. With our expertise and experience at Skermjan, we support government authorities and policy makers in developing and implementing effective and feasible regulatory frameworks for reducing CO₂ emissions.

Waste heat utilization in sector coupling refers to the use of waste heat from industrial processes to heat buildings, generate electricity, or support other production processes. This approach aims to link different sectors together to enhance overall efficiency. By directly utilizing the waste heat, energy losses from additional conversion processes are avoided. High-temperature heat storage plays a key role in this process.

BECCS is an umbrella term for technologies that use biomass as an energy source. In this process, the resulting CO₂ is captured and stored long-term, for example, as biochar or through underground CO₂ storage. The goal is to achieve negative emissions to combat climate change.

Biodiversity refers to the variety of living organisms in a specific ecosystem (regional natural area) or on Earth as a whole. This diversity includes plants, animals, fungi, and microorganisms.

Liquid biogas, also known as Bio-LNG, is produced by the condensation of biogas (primarily methane) into a liquid form. This conversion facilitates transportation and storage and serves as a direct replacement for fossil LNG.

A power plant that uses biomass such as wood, waste, or agricultural products to generate electricity and heat.

Carbon capture refers to the technology for separating CO₂ from the exhaust gases of industrial plants or power stations. The aim is to reduce greenhouse gas emissions and thus contribute to climate protection.

Carbon capture in biochar refers to the method of binding CO₂ from the atmosphere by producing and using biochar through pyrolysis. This stores carbon in the long term, which contributes to the reduction of greenhouse gases.

A Carbon Removal Certificate is a certificate that proves that a certain amount of CO₂ has been removed from the atmosphere and that the sequestered carbon remains stable over a longer period of time. For example, biochar (biochar) is assumed to remain stable for 100 years.

Sustainable energy projects use renewable energy sources such as sun, wind, water and biomass to generate energy. Their aim is to produce energy without harming the environment or depleting limited resources. At the same time, they promote social and economic benefits.

Photovoltaics is the direct conversion of sunlight into electrical energy using solar cells made of semiconductor materials. These absorb the sunlight and generate direct current through the photoelectric effect. An inverter converts this into alternating current, which is used to operate electrical appliances. Photovoltaic systems help to reduce CO₂ emissions and promote the use of renewable energies.

Pyrolysis is a process in which organic materials are heated at high temperatures in the absence of oxygen to break them down into carbon (biochar), pyrolysis oil and pyrolysis gases. The specific process control determines the yield of the individual end products.

Smart energy systems are intelligent energy systems that combine various technologies such as renewable energies, energy storage and energy efficiency. Their aim is to ensure an efficient and sustainable energy supply.

Wind power refers to the use of natural wind energy by wind turbines for the direct generation of electrical energy. Wind turbines convert the kinetic energy of the wind into mechanical energy, which is transformed into electrical energy by a generator. This sustainable energy source helps to reduce dependence on fossil fuels.

To make industrial processes truly CO₂-neutral, Skermjan delivers tailored solutions that integrate cutting-edge carbon capture, pyrolysis, and smart energy systems, all built on locally sourced sustainable resources. By harnessing the power of these technologies, we can significantly reduce your emissions while simultaneously optimizing the efficiency of your production processes, helping you take bold steps toward a sustainable future.

The integration of carbon capture and pyrolysis enables companies to reduce their CO₂ emissions while simultaneously recovering valuable resources. Pyrolysis provides high temperatures that are reliably available for industrial processes, supporting the development of resilient and sustainable heat concepts. By converting waste into reusable products and utilizing CO₂ as a raw material, companies can achieve their sustainability goals and strengthen their competitiveness.

Sustainable energy offers your company numerous benefits such as cost savings, an improved environmental profile and a secure long-term energy supply. Skermjan's customized solutions will help you meet your energy needs, especially for heat, while helping to reduce your environmental footprint.

Skermjan offers innovative heat recovery, conversion and storage solutions that help companies convert industrial heat into CO₂-neutral energy. By integrating pyrolysis and smart energy systems, we optimize your processes and minimize your CO₂ emissions through carbon capture.

We support companies in developing sustainable production processes by implementing carbon capture, pyrolysis and smart energy systems. Our customized projects help you to reduce CO₂ emissions while lowering production costs through co-products and value networks.

By implementing Skermjan's holistic solutions, which are tailored to regional resources and economic conditions and are based on carbon capture, pyrolysis and smart energy systems, companies can effectively reduce their industrial CO₂ emissions. Our customized projects help you achieve your sustainability goals while strengthening your competitiveness.

In the field of pyrolysis, we offer diverse research and development services, including process optimization, new product development, and the integration of pyrolysis into various applications. Our expertise supports researchers and technology developers in creating and implementing innovative pyrolysis solutions. We leverage a network of research-intensive institutions, industry-relevant test sites, and pilot-scale facilities.

New carbon capture technologies can significantly improve the efficiency and cost-effectiveness of CO₂ reduction projects. Through innovative approaches and technologies, researchers and developers can expand the possibilities of CO₂ capture and storage and create sustainable solutions. The aim is to close energy and material cycles and keep energy prices at a sustainable level.

We offer customized smart energy integration solutions for industry that are tailored to the individual requirements and challenges of our customers. These solutions enable the efficient use of energy and resources and contribute to the optimization of industrial processes.

For high-temperature processes, we offer innovative approaches that utilize sustainable energy sources such as biomass, solar energy, and geothermal energy. Integrating these technologies allows high-temperature processes to be made CO₂-neutral, contributing to reduced environmental impact. Additionally, this approach decouples energy prices from the volatile fossil energy market and future CO₂ costs, creating a stable and predictable energy price for the long term.

Developers of BECCS technologies can leverage our expertise in carbon capture, pyrolysis, and smart energy systems, as well as their economic integration, to enhance and scale their technologies. Our tailored solutions provide comprehensive support for the development and implementation of BECCS projects, ensuring optimized performance and successful scaling.

We offer comprehensive support for CO₂ reduction innovations, including consulting, technology development, and project implementation. With our expertise and experience, we assist researchers and technology developers in creating and successfully implementing innovative CO₂ reduction solutions. Specifically, we provide start-ups in this field with extensive testing options to scale their technologies to an industrial level and validate critical interfaces.