NANOGAP

Did you know that, although nitrogen is an essential nutrient for plants, in excess it can become a dangerous pollutant? 🌱⚠️ High levels of nitrogen in water, mainly caused by agricultural runoff, fertilizers, and wastewater, trigger a phenomenon known as eutrophication: the excessive proliferation of algae that consumes oxygen in rivers and lakes, putting aquatic ecosystems at risk. 🌊 At NANOGAP, we have developed an advanced technology, Metal Molecules (M-M), which, when integrated with Advanced Oxidation Processes (AOP), effectively reduces nitrogen levels in water, protecting both biodiversity and water quality for human consumption. 💧 How does our M-M technology combat excess nitrogen?  💥 Activation of hydroxyl radicals: Enhances the breakdown of nitrogen compounds. 🔄 Adaptation in existing systems: Maximizes AOP efficiency without infrastructure changes. 🌱 Reduced environmental impact: Minimizes eutrophication and protects ecosystems    It's a step towards cleaner water and healthier ecosystems.   At NANOGAP, we are committed to solutions that not only remove pollutants but also care for the ecological balance. With our M-M technology, we offer an efficient and sustainable answer to meet the challenges of nitrogen in water. Join the sustainable water treatment revolution and help us protect our water resources. 🌍 

After World War II, commercial aviation grew rapidly, and it seemed that traditional fuels would connect the world. However, over time, it became obvious that relying on kerosene and other fossil fuels was causing serious environmental problems. Emissions of CO₂ and other pollutants began to accumulate, contributing to climate change🌡️ To address these challenges, the aviation industry began to look for greener alternatives. In the 2000s, biofuels emerged, which are produced from renewable sources such as vegetable oils and animal fats. These fuels promised to help aviation reduce its carbon footprint and become more sustainable. 🔹 The problem?  The need for feedstocks such as oils and soybeans began to generate competition between the use of these crops for food and for fuel. As regulations became stricter and pressure to reduce emissions increased, it became clear that biofuels alone were not the ultimate solution to achieve sustainable aviation.⛽ 🔹 The advent of Power-to-Liquid (PtL).  To solve these problems of scale and sustainability, Power-to-Liquid (PtL) technology was developed. This process converts CO₂ and renewable electricity into sustainable aviation fuels (SAF). It uses a reaction called Reverse Water-Gas Shift (RWGS) to transform CO₂ into carbon monoxide (CO), which is then converted into liquid fuels using Fischer-Tropsch synthesis. Where does NANOGAP fit into this story?  At NANOGAP, we have created a catalyst technology for the RWGS reaction that overcomes traditional challenges and makes it possible to produce SAF more efficiently and at lower cost. 💡 Our state-of-the-art catalysts achieve more than 95% CO₂ conversion and 100% selectivity, in addition to reducing the required energy consumption. This makes the PtL process more cost-effective and competitive with fossil fuels.  The future of sustainable aviation is no longer just a dream; it is a reality that NANOGAP is helping to create. Are you joining the sustainable fuel revolution? 🌍✈️ 

At NANOGAP, we have taken Advanced Oxidation Processes (AOP) to the next level with our innovative Metal Molecule (M-M) technology. This technology transforms the efficiency of traditional AOPs by boosting photocatalysts in three key dimensions. 🚀 The result? A threefold advantage in the advanced oxidation process. ✨ Increased light absorption: We increase the ability of photocatalysts to capture light, maximizing the energy available for pollutant degradation. ⚡ Improved charge separation: We avoid energy loss, ensuring a more complete and efficient reaction. 🧪 Hydroxyl radical activation: We enhance the oxidation of persistent pollutants, from pesticides and heavy metals to endocrine disruptors and pharmaceutical residues. This triple advantage allows M-M technology to be retrofitted into existing AOP photocatalyst systems, optimizing performance without the need for large investments. At NANOGAP, we believe in cleaner, more efficient water treatment.   Join the advanced oxidation revolution and discover how we can transform water sustainability together! 🌍 

Hexavalent chromium (Cr(VI)) is one of the most hazardous pollutants to health and the environment. ⚠️   This toxic heavy metal, which comes mainly from industry and industrial waste, is associated with devastating effects, including liver damage, respiratory problems and an increased risk of stomach cancer. At NANOGAP, we have developed an effective and sustainable solution to address this problem. Thanks to our Metal Molecule (M-M) technology, integrated with Advanced Oxidation Processes (AOP), we achieve a much more efficient degradation of Cr(VI), transforming it into a less harmful form, trivalent chromium (Cr(III)).  Our approach allows this technology to be adapted to existing water treatment plants, facilitating its implementation without the need for costly structural modifications.  At NANOGAP, we believe in a future where clean water is free of toxic metals and accessible to all. Discover much more in our latest blog post! 🌍  Join us in our mission for safer, more sustainable water treatment! With M-M technology, we are making water a cleaner, healthier resource for society and the planet. 🚀 

Did you know that by 2025, nearly 1.8 billion people will live in areas with severe water scarcity?💧🌍 The global water resource situation demands sustainable and advanced solutions that can address persistent contaminants and ensure clean water for communities and ecosystems. At NANOGAP, we have taken a step forward in water treatment with our innovative technology for Advanced Oxidation Processes (AOP). AOP is a high-efficiency approach that uses hydroxyl radicals and photocatalysis to break down and remove complex contaminants. 🔬 But we have taken this technology even further: with our unique M-M technology , we have significantly improved the effectiveness of TiO₂ based photocatalysts, achieving faster and more efficient degradation of the most difficult pollutants. The result? Up to 8 times more effective removal of contaminants such as BPA, nitrates, Cr(VI) and ibuprofen. 💥 All this is achieved by simply adapting existing photocatalysts by adding our M-M technology, without the need for completely new systems. This allows treatment plants to improve their performance quickly and cost-effectively. At NANOGAP, we are ready to change the landscape of water treatment and create a future where clean water is within everyone's reach. Will you join us in this mission? 💧 

Just a few months ago, the University of Stuttgart presented a publication entitled “Fischer-Tropsch based Power-to-Liquid process - technical, economic, uncertainty and sensitivity analysis”, 📚  focused on the optimization of the Power-to-Liquid (PtL) process for sustainable aviation fuel (SAF), a key technology in the quest to decarbonize the aviation industry.     Specifically, the study investigates the key parameters of the Fischer-Tropsch synthesis and the Reverse Water-Gas Shift (RWGS) reaction, essential for converting CO2 into liquid hydrocarbons for aviation fuel and one of the main avenues of action in our work at NANOGAP.  https://lnkd.in/duykpDwR  These are the main conclusions     ⚡ Efficiency improvement   Optimal RWGS operating conditions were identified that maximize fuel efficiency at 800 °C and 5 bar pressure. These conditions lead to increased carbon efficiency and reduced production costs.     💼 Economic feasibility   The study reveals that reducing electrolyzer full-load hours or hydrogen costs could significantly reduce the total cost of SAF production. A robust system design that can tolerate changes in technical parameters (e.g., FT operation) ensures stable performance.     🌱 Environmental benefits   The PtL process offers an alternative to fossil fuels by harnessing renewable electricity, CO2 capture and hydrogen, aligning with sustainability goals.     At NANOGAP, we couldn't be happier with these advances that support our work: as demand for SAF increases, further research and collaboration with industry in this field will be critical.  Together we can drive the green transformation of aviation! 

Did you know that the current market for sustainable aviation fuels (SAF) relies heavily on the HEFA (hydrotreated esters and fatty acids) process? Although it is a mature technology, its growth is limited by the availability of sustainable feedstocks such as oils and soybeans, which also compete with food production. At NANOGAP, we are working on a promising alternative: Power-to-Liquid (PtL), a process that converts CO2 and renewable electricity into e-fuels. With our next-generation catalysts for the RWGS reaction, we eliminate these limitations and create a scalable system that can meet the growing demand for SAF without relying on traditional biofuels. The future of aviation is green and sustainable - are you ready to be part of this change? 🌍

Did you know that Fischer-Tropsch (FT) synthesis is a chemical process that has been around for almost 100 years? The first work was done in 1925 by German chemists Franz Fischer and Hans Tropsch. In their research, they developed a method to synthesize hydrocarbons from coal and, later, Natural Gas. The process was subsequently refined and commercialized, and has been used in a variety of applications, including the production of liquid fuels during World War II and today to convert Natural Gas into liquid products. Fischer-Tropsch is also a key technology for NANOGAP: It allows for conversion of syngas produced with our novel reverse water gas shift (RWGS) catalysts into liquid fuels. Syngas produced with our catalysts is at low temperature, has high purity, and an optimized hydrogen to carbon monoxide ratio, all enabling efficient FT production of liquid fuels. Our innovative approaches to materials synthesis enable catalysts to operate at lower temperatures and pressures, resulting in significant cost reductions and reduced environmental impact.

🚗🔬 What will the future of mobility look like?  Imagine cars that can perform perfectly even in extreme cold, or vehicles that are safer, more sustainable, and more connected. This vision is becoming a reality with TRANSILIOT, a project where NANOGAP teams up with industry leaders like MSTECH Europe, MAIER Group, Accent Systems and TECNALIA Research & Innovation to transform automotive technology through cutting-edge flexible electronics and nanomaterials.    🌍 What is TRANSILIOT?  TRANSILIOT, a CDTI-backed project, was created to tackle global technological challenges, especially those related to semiconductors and microelectronics. With the goal of making Spain more competitive in this field, this project focuses on developing innovative flexible heating electronics and nanomaterials to improve efficiency, safety, and reliability in automotive systems and beyond.    Our Key Objectives:👇  - Develop Transparent Conductive Inks:  - Improve Radar Detection:   - Boost Sustainability:   - Enable Scalable Production   TRANSILIOT is not just about research—it's about advancing the microelectronics industry in Spain and Europe, fostering leadership in a strategic sector.     At NANOGAP, we're proud to be a part of this journey, contributing our expertise in silver nanoparticles and nanofibers, and conductive inks to help shape the future of mobility. 💫

Do you want to lead the future of sustainable aviation? ✈️ At NANOGAP we are driving this transformation with state-of-the-art catalysts and Power-to-Liquid (PtL) technology. Our goal is clear: to transform CO2 into sustainable fuels (SAF) and reach the ambitious goals of net-zero emissions by 2050. Do you know that the industry will need 325 million tons of SAF per year to comply with the Paris agreement? Current solutions based on limited feedstocks, such as oils and soybeans, cannot meet that demand. That's why the future lies in PtL, which converts captured CO2 and renewable energy into sustainable jet fuels, without competing with food. How do we do it? 👉 Our RWGS catalysts achieve over 95% CO conversion and 100% selectivity, solving key challenges in this process and enabling efficient, lower cost production of high quality, sustainable fuels. Contact us today and join the change!