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SteamDry joins the 2COOL2WASTE cluster

The SteamDry project has joined the 2COOL2WASTE cluster, a network of Horizon Europe projects collaborating to accelerate sustainable heating and cooling technologies across Europe. Through this step, the project positions its superheated steam drying (SSD) innovation within a wider portfolio of solutions for waste heat recovery, industrial decarbonisation and energy efficiency.

The 2COOL2WASTE cluster currently gathers 15 Horizon Europe projects: EEETHOS, EXQUISHEAT, GEOSYN, HEATWISE, HyCool-IT, I-UPS, MODERATOR, Push2Heat, RE-WITCH, SEEDS, SENERGY NETS, SPIRIT, SUSHEAT, THERMINATOR and THUNDER. Together, these initiatives cover a broad spectrum of solutions from high-temperature heat pumps and smart heat recovery to thermal networks, geothermal and seasonal storage, and advanced control systems for industrial and building applications.

Several projects in the cluster share a particularly close focus with SteamDry on industrial process heating and waste heat valorisation, including SUSHEAT, SPIRIT, Push2Heat, EXQUISHEAT, EEETHOS, HEATWISE and RE-WITCH. These projects address complementary parts of the value chain—such as high-temperature heat pumps for industry, electrified process heating, smart heat recovery and integration of waste heat into industrial systems—creating strong synergies with SteamDry’s work on energy-efficient industrial drying.

Within the 2COOL2WASTE cluster, the 15 projects work together on renewable heating and cooling, industrial waste heat recovery and advanced thermal energy management. By joining this initiative, the SteamDry project contributes expertise in high-efficiency industrial drying and benefits from knowledge exchange, joint events and cross-project collaboration on real-world decarbonisation solutions.

Participation in 2COOL2WASTE reinforces the alignment of SteamDry with key EU policy objectives, including the 2030 Climate Target Plan, the EU Bioeconomy Strategy, Processes4Planet and REPowerEU. Through the cluster, the project helps demonstrate practical pathways to reduce industrial energy demand, increase the reuse of waste heat and support a more sustainable and competitive European process industry.

Further activities within the 2COOL2WASTE community will feature SteamDry in joint communication actions, thematic webinars and dissemination materials that highlight progress and lessons learned from the project and its sister initiatives.

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Women and Girls in Science: The SteamDry Team Driving a Climate Neutral Future

Every year on 11 February, the International Day of Women and Girls in Science shines a spotlight on the women who are transforming our world through research and innovation. For SteamDry, it is a chance to celebrate the scientists and engineers who are not only advancing superheated steam drying, but also opening doors for the next generation of girls who love science.

The day was created by the United Nations to promote full and equal access to science for women and girls and to tackle the gender gap that still exists in many STEM fields. Around the world, women remain underrepresented in engineering and physical sciences, even though interest and ability are not the problem; stereotypes, lack of role models and unequal opportunities are. By sharing real stories and faces, initiatives like SteamDry help turn abstract statistics into inspiring examples that girls can relate to and imagine themselves in.

How SteamDry connects to the cause

SteamDry is developing and piloting superheated steam drying technology for web‑like materials such as paper, board, tissue and nonwovens, with the potential to cut drying energy use by up to 60% and overall line energy by about 40%. This leap in efficiency supports key UN Sustainable Development Goals, including Climate Action and Industry, Innovation and Infrastructure, and aligns with EU strategies like REPowerEU and the 2030 Climate Target Plan. When women lead crucial parts of this work—from environmental assessment to control systems and pilot trials—it sends a powerful message that they are central to climate and industrial innovation, not an exception.

The women behind SteamDry’s impact

Maite Moreira (USC)
As a professor of Chemical Engineering at Universidade de Santiago de Compostela and member of the Environmental Biotechnology group, Maite brings deep expertise in life cycle assessment, eco‑efficiency and clean technologies. Within SteamDry, she helps quantify how much energy, resources and emissions can be saved over the entire life cycle of the new drying concepts, turning the technology’s promise into robust environmental evidence that industry and policymakers can trust. For girls who care about sustainability, her work shows that you can combine a passion for the planet with a career in advanced engineering and environmental science.

Sabrina Dusek (AIT)
At the AIT Austrian Institute of Technology, Sabrina focuses on energy efficiency and systems analysis, and in SteamDry she plays a key role in estimating the energy‑saving potential of the new superheated steam drying solutions. By translating complex models and pilot data into clear numbers on energy and CO2 reductions, she makes it easy to see how a change in drying technology can help decarbonise entire production lines. Her work shows young women that if they enjoy maths, physics and data, they can directly influence how fast industry moves towards net‑zero.​

Floor Boon (Wageningen Food & Biobased Research)
Floor tackles one of the toughest technical challenges in SteamDry: keeping the system tight and clean by improving sealing and steam purification in a demanding industrial environment. She works on solutions for non‑contact sealing and for removing dust and particles from superheated steam, ensuring that the system is safe, reliable and efficient at scale. For girls who like solving practical problems, Floor’s work is a vivid example that engineering is not just theory—it is creative, hands‑on and essential to making new ideas work in real factories.​​​

From individual stories to collective change

SteamDry brings together research institutes, universities, technology suppliers and manufacturers from across Europe, and women are present in scientific, technical and coordination roles throughout the consortium. By consistently highlighting colleagues like Maite, Sabrina and Floor on project channels, events and social media the project contributes to a wider movement where women in STEM are visible, valued and heard. On this International Day of Women and Girls in Science, their stories show that the path to a climate‑neutral, resource‑efficient industry is being shaped by diverse teams, and that there is plenty of room for the next generation of girls to join them.

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Rebuilding the SteamDry pilot line: from air to superheated steam at VTT

 

The SteamDry consortium has reached a major technical milestone with the rebuild of the Sampo pilot line at VTT in Jyväskylä, converting it from conventional air drying to superheated steam drying (SSD). The upgraded pilot will be the central testbed for demonstrating how SSD can drastically reduce energy use and eliminate direct CO₂ emissions in drying of paper, board, tissue and other web‑like materials.​​

The Sampo pilot line, originally built as a custom foam‑forming machine, now forms the backbone of SteamDry piloting activities. It provides a unique platform for high‑speed trials, wide basis‑weight ranges and tailored experiments with new process concepts, raw materials and chemistries. By rebuilding this existing asset instead of constructing a fully new line, the project accelerates scale‑up while making efficient use of existing infrastructure.​

The rebuild has required a comprehensive engineering and safety workflow, starting with a HAZOP study to systematically identify and mitigate risks in operating the new steam‑based pilot line. Key tasks include process and machine design, selection of new components, and extensive ductwork, sealing and piping design to handle superheated steam conditions; the project is replacing gas burners with electrically heated steam systems, installing new dryers and steam piping, redesigning condensate handling, and upgrading instrumentation and automation to support advanced control and data collection.

Commissioning is planned to start in January 2026, followed by the first SSD trials in February. The spring 2026 campaign will focus on running up and fine‑tuning the process with VTT’s own pilot webs, while autumn 2026 will see trials with press‑dried rolls produced at Valmet’s pilot line in Jyväskylä, allowing partners to test realistic industrial grades under SSD conditions.​

The pilot line is closely linked to laboratory‑scale SSD ovens at both VTT and Wageningen University & Research, which support material screening and detailed temperature‑profile measurements. Together, the lab ovens and the rebuilt Sampo line provide a coherent experimental environment for validating models, optimising drying strategies and generating data for the project’s digital twin and industrial concept development.​​

With the Sampo rebuild now underway, SteamDry is entering a new phase in which modelling results, concept studies and materials research can be tested at pilot scale under realistic operating conditions. The upcoming trials will play a key role in derisking SSD technology, informing industrial retrofits and new‑build concepts, and supporting future investment decisions across the pulp, paper and related process industries.​​

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SteamDry joined Valmet’s “Beyond Circularity” ecosystem closing event in Helsinki

On Thursday 22 January 2026, SteamDry joined Valmet’s “Beyond Circularity: Closing the Circle Together” closing event in Helsinki, Finland, where ecosystem partners gathered to share results from four years of joint circularity and green transition projects. For SteamDry, as part of the Beyond Circularity ecosystem, this was a unique stage to show how superheated steam drying supports electrified, low‑emission paper and board production as part of Valmet’s Beyond Circularity program.​​

Beyond Circularity is Valmet’s multi‑year R&D and ecosystem program aimed at transforming waste and emissions into valuable resources, accelerating the green transition across process industries. The ecosystem brings together hundreds of partners in co‑research and co‑innovation projects, ranging from new recycling concepts and biorefining to resource‑efficient, automated and digitalized industrial processes.​

Together, participants joined SteamDry and the wider ecosystem in celebrating the achievements of Beyond Circularity and planning the next wave of collaboration.

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Electrifying Europe’s Industry: How SteamDry Answers the 2025 State of the Energy Union Call

The 10th report on the State of the Energy Union confirms that the EU is on track towards its 2030 targets, with greenhouse‑gas emissions falling further and renewables already providing a rapidly growing share of electricity. At the same time, it stresses that reaching at least a 55% emissions reduction and a minimum 42.5% renewable share will only be possible with much faster clean‑tech deployment and stronger energy‑efficiency measures in buildings, heating, cooling and industrial processes.​

The report frames Europe’s strategic goal as becoming an “electro‑continent”, relying on domestically produced clean energy to cut fossil fuel imports, improve resilience and keep energy affordable. This implies a steep rise in electricity’s share of final energy use and a massive reduction in wasted energy across industry, especially in heat‑intensive steps such as drying.​

Why industrial drying is a hidden lever

More than 60% of the energy used by European industry goes into producing heat, and a large share of that is for low‑ to medium‑temperature applications such as drying, evaporation and pasteurisation. Studies show that roughly a third of Europe’s industrial process‑heat demand sits below 200 °C and is therefore technically suitable for electrification and high‑efficiency solutions like industrial heat pumps and advanced steam systems.​

In sectors such as pulp and paper, food and beverages and other web‑like products, conventional drying still relies heavily on combustion‑based systems and hot air, which inherently waste much of the supplied energy and lock in fossil fuel use. Cutting the energy need of these operations is therefore a powerful and often underestimated lever to reduce gas imports, lower costs and accelerate progress towards the Energy Union’s climate and competitiveness objectives.​

How SteamDry answers the Energy Union call

SteamDry focuses on advancing superheated steam drying technology for web‑like materials such as paper, board, tissue and nonwovens, using superheated steam instead of hot air as the drying medium. By circulating and reheating steam in a closed loop, SSD enables almost complete recovery of latent heat, significantly reducing net energy consumption while maintaining high product quality and hygiene.​

Analyses for the project indicate that, if deployed widely, SSD could unlock energy‑saving potential of around 127 TWh per year in European paper and board production and about 870 TWh globally. These savings directly support the report’s message that every additional percentage point of energy‑efficiency improvement translates into substantial reductions in fossil fuel imports and exposure to volatile gas prices.​

Aligned with the Affordable Energy Action Plan and Clean Industrial Deal

The State of the Energy Union underlines the implementation of the Affordable Energy Action Plan, which aims to reduce energy costs, modernise networks and strengthen interconnections while maintaining progress towards climate goals. SteamDry contributes to this agenda by offering industrial sites a technology that can lower energy bills, cut emissions and increase flexibility to use low‑carbon electricity and waste heat more effectively.​

The report also highlights the Clean Industrial Deal and the Competitiveness Compass as central tools for keeping European industry competitive during the transition by backing clean‑tech deployment and innovation. As a Horizon Europe project, SteamDry exemplifies how EU‑funded research and innovation can move from lab‑scale concepts to pilot‑scale demonstrations, creating investable solutions for equipment suppliers and manufacturers across the paper value chain.​

From policy signals to deployment decisions

For industrial stakeholders, the 10th State of the Energy Union is more than a policy snapshot; it is a strong signal that investments in efficient, electrification‑ready processes will be increasingly rewarded by regulation, funding instruments and market dynamics. Technologies that reduce dependence on imported fuels, lower exposure to carbon prices and stabilise operating costs are uniquely positioned to benefit from upcoming EU instruments and national support schemes.​

By demonstrating superheated steam drying at pilot scale and developing concepts for integration into existing and new industrial dryers, SteamDry helps de‑risk a key technology class that can turn the Energy Union’s high‑level objectives into real‑world energy and emissions savings. In doing so, the project contributes not only to EU climate and energy targets, but also to a more resilient, competitive and electrified European process industry.

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Life Cycle Assessment in the SteamDry Project: Every Step Counts

In the pursuit of more sustainable industrial processes, every step counts—especially when it comes to understanding environmental impact. That principle underpins the SteamDry Project.

One of the key contributors to this effort is José Luis Ares Sainz, a PhD student at the University of Santiago de Compostela. His work centres on applying a robust Life Cycle Assessment (LCA) methodology to evaluate the environmental performance of the steam drying process.

Understanding Life Cycle Assessment (LCA)

Life Cycle Assessment is a structured methodology used to evaluate the environmental impacts associated with all stages of a product or process—from raw material extraction through manufacturing, use, and end-of-life disposal. Defined under ISO 14044, the LCA process is composed of four main steps:

  1. Goal and Scope Definition
    This step involves clearly defining the purpose of the study and the system boundaries. For the SteamDry Project, this includes specifying the functional unit (e.g., one tonne of dried paper) and the scope (e.g., from dryer input to output).
  2. Life Cycle Inventory (LCI)
    This phase collects data on the energy and material flows into and out of the system. It includes mass and energy balances that form the foundation for later analysis.
  3. Life Cycle Impact Assessment (LCIA)
    At this stage, data from the inventory is translated into measurable environmental impacts, such as greenhouse gas emissions, resource use, and pollution indicators.
  4. Interpretation of Results
    The final step is analysing the findings to draw meaningful conclusions and identify opportunities for improving environmental performance.

LCA Within the SteamDry Project

The SteamDry Project integrates LCA as a central component of its assessment framework, particularly within Work Packages 5 and 7. The research team is tasked with developing and applying a comprehensive LCA model tailored to the specific context of superheated steam drying technology. This includes:

  • Performing sensitivity analyses to understand how changes in variables affect the outcomes.
  • Identifying the life cycle stages with the highest environmental impact.
  • Exploring alternatives to address potential sustainability challenges.

In addition to LCA, the project team is also working on dynamic modelling approaches, incorporating real experimental data from the steam drying system. These efforts are complemented by Work Package 10, which focuses on equipment-specific modelling to validate the assumptions and improve the accuracy of the environmental assessment.

A Dual Approach to Sustainability and Viability

One of the core objectives of the SteamDry Project is to demonstrate the potential for up to 100% reduction in carbon dioxide emissions compared to conventional drying technologies. To support this, the project takes a dual approach: combining economic feasibility studies with comprehensive environmental analysis.

By integrating detailed modelling and life cycle thinking, the project provides valuable insights into both the comparative advantages and the limitations of superheated steam drying technology. This dual perspective allows stakeholders to assess not only whether the technology works, but also whether it meets environmental and economic expectations.

By placing Life Cycle Assessment at the core of its development strategy, the SteamDry Project demonstrates how engineering innovation can be aligned with sustainability goals. The ongoing work provides a roadmap for developing and validating cleaner technologies through rigorous scientific analysis, ensuring that each step contributes meaningfully to a more sustainable future.

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Charting the Future of Drying: SteamDry’s Vision Roadmap for Superheated Steam Drying (SSD)

As industries across Europe aim to decarbonize and improve energy efficiency, drying processes—particularly in pulp and paper, nonwovens, and wood products—are under increased scrutiny. SteamDry’s latest deliverable, D3.1: Vision Roadmap of SSD Transition, outlines a clear and actionable plan to transform drying technology using superheated steam drying (SSD).

This roadmap is more than a technical document. It’s a long-term strategy that addresses energy efficiency, carbon reduction, system integration, and commercial scalability.

Why Superheated Steam Drying?

Traditional dryers rely on steam-heated contact surfaces or convective hot air—methods that consume vast amounts of energy and emit significant CO₂. SSD introduces a step change by:

  • Circulating and reheating steam in a closed loop, minimizing net energy use.
  • Enabling heat recovery from excess steam for use elsewhere on site.
  • Delivering faster, more uniform drying with improved product quality.
  • Supporting advanced digital monitoring and control through AI-based platforms.

From Lab to Industry: The Roadmap

The SSD roadmap spans from 2024 through the early 2030s, progressing through several phases:

  • Laboratory Research (2024–2025): Focus on steam purification, sealing methods, product quality analysis, and early piloting.
  • Pilot Projects (2025–2026): Pilot dryer development and real-world trials at VTT.
  • Demonstration Phase (2027–2029): Larger-scale trials with industrial partners.
  • Flagship Deployments (2030 onward): Commercial-scale SSD integration in existing and new drying systems.

The roadmap was shaped through collaborative workshops with project partners, blending technical foresight with practical industrial insight.

Five Core Focus Areas

To guide development, the consortium has defined five strategic focus areas:

  1. Dryer Unit Design: Compact, modular, and sealed for safe and efficient steam use.
  2. Process Integration: Smart recovery and reuse of steam energy.
  3. Steam Purification: Clean and stable operation in bio-based environments.
  4. Sealing Technologies: Preventing air leaks to maintain pressure and safety.
  5. Product Quality: Maintaining or improving performance across end uses.

Energy and Environmental Impact

Drying accounts for up to 80% of the energy demand in papermaking. In total, drying energy use in Europe is estimated at:

  • 400 PJ/year for paper and board
  • 1.4–2.2 PJ/year for nonwovens
  • 70–140 PJ/year for wood drying

By replacing legacy drying systems with SSD, the potential for energy savings and emissions reduction is substantial—supporting both climate goals and long-term industrial competitiveness.

What Comes Next?

As SteamDry moves into the pilot phase in 2025, the groundwork laid in this roadmap will inform key decisions, technology selections, and industrial partnerships. The long-term vision is clear: a transition to SSD that delivers measurable benefits in energy efficiency, sustainability, and product quality.

To learn more, download the full roadmap or explore related project updates on our site.

Download Deliverable D3.1

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Engineering the Future of Drying: Inside SteamDry’s Digital Core

The SteamDry project is pioneering the future of sustainable web material drying in the paper and pulp industry through the implementation of superheated steam drying (SSD). At the heart of this transformation lies a robust and forward-looking IT concept—designed to support simulation, monitoring, optimization, and control of the entire drying process.

Smarter Models for a Greener Industry

SteamDry’s IT concept outlines a comprehensive suite of models, from static and dynamic simulations to advanced drying physics and fouling detection. These models form the foundation for digital twins that replicate real-time operations of dryers, heat exchangers, steam cleaners, and more. The digital twins will enable near real-time optimization, predictive analytics, and anomaly detection.

A Future-Ready Data Infrastructure

A dedicated data platform complements the existing automation systems at VTT’s pilot plant. This platform is equipped to store time-series and asset data, leveraging PostgreSQL with TimescaleDB for high-efficiency logging and retrieval. Modular APIs built on modern protocols like HTTP and MQTT allow seamless integration of sensor data, model outputs, and control recommendations.

From Recommendations to Real-Time Control

SteamDry’s agent-based control algorithms focus on multi-objective optimization—balancing energy consumption, product moisture content, and overall process efficiency. Initially, operators will manually implement suggested setpoints. As the system matures, direct control interfaces may enable autonomous adjustments, closing the loop between digital insights and physical action.

Built on Open Standards, Geared for Flexibility

The IT architecture prioritizes flexibility and interoperability. The use of open-source technologies like Grafana for visualization, Keycloak for identity management, and Docker/Kubernetes for deployment ensures a scalable and adaptable system. APIs follow the OpenAPI and AsyncAPI standards, encouraging collaboration and future expansion.

Digital Twins Driving Sustainability

This IT concept is more than a technical framework—it’s a critical enabler for environmental and economic impact. By coupling digital models with live data and intelligent controls, SteamDry aims to cut energy use, reduce emissions, and support the transition to a circular and decarbonized industry.

What’s Next

As the project advances, the IT concept will evolve. Integration of coupled simulations, advanced user interfaces, and new control strategies are expected to enhance the digital ecosystem. SteamDry continues to push the boundaries of what’s possible in industrial drying through innovation grounded in solid digital infrastructure.

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SteamDry Consortium Meets in Wageningen to Advance Clean Drying Technologies

From July 9 to 11, the SteamDry consortium gathered in Wageningen, Netherlands, for a dynamic three-day meeting focused on accelerating the transition to clean, energy-efficient drying technologies. The agenda was packed with technical presentations, group work, and a hands-on excursion, reflecting the project’s momentum and collaborative spirit.

Day 1: Technical Insights and Collaboration 

The meeting kicked off on July 9 with a warm welcome in Wageningen, followed by a series of presentations from key work packages. VTT opened with an overview of WP1 on the management of concept development and WP3 on creating a transition pathway towards energy-efficient drying. The AIT Austrian Institute of Technology (AIT) highlighted progress in WP4, focused on replacing fossil-based drying with green alternatives. 

Wageningen Research (WR) presented critical innovations in WP6 to prevent fiber and air contamination in the closed-loop superheated steam system—an essential step for system reliability. After a short break, the consortium participated in a productive group session (WP11) led by Valmet to evaluate upscaling concepts. Later in the day, the University of Twente (UT) and the VDEh-Betriebsforschungsinstitut (BFI) presented cutting-edge work on steam sealing for web-like materials (WP7) and the integration of digital technologies (WP8), respectively. 

The day concluded with a safety briefing for the upcoming site visit to Smurfit Westrock Parenco. 

Day 2: Industrial Integration and Impact Evaluation 

On July 10, the consortium began the day with an excursion to Smurfit Westrock Parenco in Renkum—a highlight of the event. This advanced recycled-paper mill, producing over 385,000 tonnes per annum of packaging paper from 100% recovered fiber, showcases industry-leading sustainability practices. The visit provided valuable real-world context for how SteamDry technologies could be applied at scale. 

In the afternoon, VTT presented progress on WP9 (piloting of the Steam Superheated Drying (SSD) process), followed by the University of Santiago de Compostela (USC) assessment of its environmental and techno-economic performance (WP10). Group work led by the Fundación Empresa-Universidad Gallega (FEUGA) explored IP strategy and exploitation plans (WP14), laying the groundwork for securing innovation results. Valmet and Metsä Group presented on the upscaling strategy (WP11) and business case development (WP12), and FEUGA closed with WP13, highlighting communication, dissemination, and exploitation activities. 

Day 3: Business Planning and Research Infrastructure 

The final day, July 11, opened with a general assembly meeting. Metsä led group work on initiating business cases (WP12), followed by VTT’s session on pilot layout evaluation and trial planning (WP9). A break allowed participants to regroup before touring the facilities at Wageningen Food & Biobased Research—a partner institution supporting innovative biobased solutions. The consortium wrapped up the event with a networking lunch, reflecting on a productive and energizing gathering. 

Looking Ahead 

The Wageningen meeting reaffirmed the consortium’s shared commitment to reshaping industrial drying processes with sustainable and economically viable solutions. With valuable input from all partners, hands-on industrial insights, and collaborative planning for future pilots and business models, the SteamDry project continues to pave the way for clean tech in the circular economy. 

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SteamDry at EUSEW 2025: Advancing Sustainable Drying Technologies for a Greener Europe

We are excited to announce that SteamDry is actively participating in the European Sustainable Energy Week (EUSEW) 2025, Europe’s premier event dedicated to renewables and energy efficiency, taking place from 10 to 12 June 2025 in Brussels and online.

SteamDry at the MiniStor Final Conference – 9 June

SteamDry will commence its EUSEW 2025 engagement by contributing to the MiniStor Final Conference on 9 June, an official Energy Day event under the EUSEW umbrella. This conference will focus on advancing decarbonisation strategies, particularly in the residential sector. Our representative, Joanne Siccama from Wageningen University & Research, presented SteamDry’s innovative approach to reducing energy consumption and CO₂ emissions in the paper and board manufacturing industry.

Watch the SteamDry presentation from around minute 3:27:00:

The MiniStor Final Conference will focus discussions on thermal energy storage technologies, with insights from experts like Carlos Ochoa (IERC), Driss Stitou (CNRS), and Georgios Martinopoulos (CERTH/CPERI). SteamDry’s participation will highlight the project’s potential to achieve up to 60% energy savings in thermal drying and 40% energy savings across production lines, contributing significantly to the EU’s decarbonisation goals.

Join Us at the EUSEW Energy Fair – 11–12 June

Following the conference, SteamDry will be showcased at the EUSEW Energy Fair on 11 and 12 June, located at Stand C-5 in the Charlemagne building. This exhibition is part of a collaborative effort featuring several EU-funded projects, including Confess, MiniStor, Maxima, ECOLOOP, EBENTO, ECLIPSE, and R2D2 .

Visitors to our stand can:

  • Explore how SteamDry is transforming the paper industry through breakthrough advancements in energy efficiency and environmental sustainability. Learn how our technology contributes to achieving major energy and CO₂ reduction targets.
  • Witness our pilot plant in action – trough videos.
  • Understand the key benefits of superheated steam drying.

We invite all EUSEW attendees to visit our stand and learn more about how SteamDry is driving sustainable change in the paper industry.