Digital Technologies for Driving Lower LCOH (Levelized Cost of Hydrogen) Through Integration of Production with End-use
Hydrogen is pivotal in decarbonizing advanced economies, with growing interest in sustainable hydrogen production and utilization technologies. However, challenges like scaling up, reducing costs, integration into wider systems, and building confidence persist. As the industry strives to find the best solutions to these challenges, focusing on minimizing the levelized cost of hydrogen (LCOH), several areas are being explored, in addition to improvements in production technologies. This includes integrating production with end-use and valorizing the electrolysis-produced oxygen, recovering energy from waste heat streams, or finding additional uses for excess renewable energy to enhance overall process economics.
Join Siemens for this webinar to learn more about the virtual environment digital twins offer for:
- Testing system interactions
- Aiding in process design
- Real-time optimization
- Integration using electrolysis-produced oxygen, electrical energy from waste streams and operating strategies for downstream process efficiency
Accelerating Decarbonization using an Integrated Engineering approach for Digital Design of Green Hydrogen and CCUS systems
As the transition to low-carbon economies accelerates, hydrogen and Carbon Capture, Utilization, and Storage (CCUS) technologies are increasingly recognized for their pivotal roles in decarbonization strategies. The surge in interest in environmentally friendly hydrogen production and CO2 management options brings to light significant challenges, including scalability, cost-effectiveness, system integration, and broader acceptance.
This presentation delves into the transformative power of an integrated digital design paradigm, underpinned by high-fidelity process digital twins. Join Siemens to explore the potential of integrated digital design solutions in accelerating the deployment of decarbonization technologies such as green hydrogen production and CCUS initiatives.
Leveraging Digital Process Twins for Efficient and Flexible Hydrogen Production: From Design to Operation
Hydrogen has become a vital clean energy source amid global efforts to decarbonize industries and enhance energy security. However, the dynamic nature of renewable energy sources like solar and wind, often used in hydrogen production, presents significant challenges. To address these challenges, it is imperative to design hydrogen production facilities for flexibility rather than around a single operating point. Additionally, once operational, maximizing cost-efficiency hinges on factors such as renewable energy availability, grid pricing, and hydrogen demands.In this webinar, we will highlight the significant benefits of adopting a consistent modeling approach throughout all project phases. Join us to learn how you can contribute to the industry's pursuit of efficient, flexible and sustainable hydrogen production.
Safe design and optimization of Hydrogen Liquefaction systems: The Critical Role of Accurate Thermodynamic Modeling
Hydrogen liquefaction is a key process to store and transport hydrogen efficiently. The high energy density that liquid hydrogen possess brings advantages to the market today within sectors such as the automobile industry, aeronautic and aerospace industry among others. Having as a main goal the transition from petroleum-based fuels to more sustainable alternatives, hydrogen stands as a potential candidate to make this happen thanks to the thermodynamic benefits it has in liquid state.Digital tools such as process modelling and simulation, are used extensively for the safe design and optimization of processes, including liquefaction and storage of gases. A key requirement for such models is the need for accurate thermodynamic modelling.In this webinar we discuss orthohydrogen, parahydrogen and the complexity of the ortho-para conversion. The introduction of a thermodynamic and process model that takes into account orth-para conversion factors, allows for better design of component sizing and operating strategies for the liquefaction process. Join us to learn more about improving the accuracy of traditional simulation models.
