Ghulam Haider, Ph.D’s Post

A breakthrough in carbon capture technology is here! Researchers have developed a material that captures CO₂ over hundreds of cycles with no loss in efficiency, addressing one of the biggest challenges in carbon capture durability. This innovation could make a real difference in sustainable carbon reduction, moving us closer to a low-emission future. A powerful example of how material science is driving change in clean energy and environmental protection.

Plants equipped with Carbon Capture and Storage (CCS) technology require 15-25% more energy than conventional plants, leading to indirect emissions from additional fuel extraction and transportation. This extra energy use can also increase air pollution, with predictions of higher particulate matter and nitrogen oxide levels. Ammonia emissions, expected to rise more than threefold from energy plants due to solvent degradation in the carbon capture process, can contribute to acidification, eutrophication, and atmospheric particulate matter formation. The World Health Organization identifies particulate matter as the deadliest form of air pollution because it can penetrate the respiratory system, causing DNA mutations (potentially leading to cancer), heart attacks, respiratory illnesses, and premature death. Although the overall increase in ammonia emissions from CCS-equipped plants may be small compared to the agricultural sector, these adverse effects highlight the need to consider safer alternatives. At Carbonlocked Technologies Incorporated, we strive to implement the best and most environmentally friendly solutions to minimize air pollution, utilizing cleaner and healthier tools and processes than conventional methods.

Challenges and Prospects of the Cable Industry 🌐 Environmental Protection and Sustainability ♻️ As environmental awareness increases, the cable industry is actively seeking green materials and environmentally friendly production processes. Recycling and reusing old cables helps reduce resource waste and environmental pollution. Technological Innovation 🚀 Continuous development of new materials and high-performance cables is necessary to meet the demands of future smart grids and high-speed communication. The application of nanotechnology and superconducting materials is expected to bring revolutionary changes to the cable industry.

We've #polluted every part of the planet. #pollution I wonder what impact new generations of nanotechnology and meta-materials will have on the environment and us. Are we to keep repeating the same mistakes? => https://lnkd.in/dmHNs4M

Sparta’s ERS isn’t just going to lead the way in applying nanotechnology to e-waste recycling, management sees it as a way to process more waste at a faster rate while also sorting recycled materials with precision. This is great news for the bottom line. Read the details in our latest news release: https://shorturl.at/X00gu #nanotechnology #science #ewaste #nanotech #recycling #technology #innovation #techequipment #NeoSort

Amazing things are already possible when it comes to reducing (or removing) transport emissions. San Francisco recently launched a hydrogen-powered ferry that produces zero emissions. Hydrogen powered transport is argueably better than electric. It doesn't use rare earth metals which electric vehicle proponents often gloss over in terms of impact. The only byproduct is water. A fully functional and viable vessel – not a prototype – that runs without spewing carbon into the air. This is proof that clean technology can work at scale in industries that are traditionally hard to decarbonise. The challenge isn’t innovation – it’s deployment. Scaling hydrogen infrastructure, cutting production costs, and integrating it into transport networks is the next step. But the ferry is a reminder that solutions exist. We’re not waiting for breakthroughs. We’re waiting for the will to scale what’s already possible. Credit to WEF for the video. Repost and follow for more.

SYSTEMIC CARBON TECHNOLOGY /NANO TECHNOLOGY AND HOW IT IMPROVES THE LANSCAPERS BUSINESS AND THE ENVIRONMENT 1. **Landscaping**: This field focuses on the design and maintenance of outdoor spaces. It often incorporates sustainable practices to enhance biodiversity and reduce environmental impact. 2. **Nanotechnology**: This involves manipulating materials at the nanoscale, which can lead to innovative solutions across various fields, including agriculture and landscaping. For instance, nanomaterials can be used in fertilizers and pest control to improve efficiency and reduce chemical usage. 3. **Systemic Carbon Technology**: This refers to methods and technologies aimed at capturing and utilizing carbon dioxide from the atmosphere. In landscaping, this can include the use of plants that are particularly effective at sequestering carbon, biochar applications, or even engineered materials that capture carbon. Combining these fields could lead to more sustainable landscaping practices. For example, employing nanotechnology in soil amendments could enhance nutrient delivery and retention, while systemic carbon technologies could help mitigate climate change impacts by improving carbon sequestration in urban landscapes.

Azra Tech’s pioneering ultra-low friction, biocide-free hull coating system Blue Race, built on proprietary patented nano-technology, was applied to our good vessel Ellie Lady @ HRDD. Technology, has proven its effectiveness and resilience, performing reduction in CO2 up to 20 % Azra Tech cutting-edge solutions not only enhances operational efficiency but also deliver exceptional environmental. The advanced technology align with six United Nations Sustainable Development Goals, particularly Goal 14 “Life below Water”. This eco-friendly coating system is free of biocides and active ingredients ensuring that no harmful chemicals are released into the water.

At NANOGAP, our track record in developing advanced and sustainable technologies has positioned us as an industry benchmark. Why are we the ideal partner to transform CO2 conversion and lead the change towards a cleaner future? 🌍 15 Years of Experience Since 2009, we at Nanogap have been at the forefront of innovation in nanotechnology and advanced catalysts, with an unwavering commitment to sustainability. 🔬 +20 International Patents Our technology is globally protected, ensuring our partners exclusive access to pioneering solutions in the conversion of CO2 to sustainable fuels. 🔥 >95% Conversion to CO Our RWGS catalysts achieve exceptional CO2 to CO conversion efficiency, with 100% selectivity and no unwanted methane production. 🌱 30% Reduction in Energy Consumption Thanks to our advances, we have been able to significantly reduce the energy required for the RWGS process, which translates into lower operating costs and reduced environmental impact. 📈 17% Annual SAF Market Growth The Sustainable Aviation Fuels market is booming - will you join us in leading the change?

The conversion was facilitated with the help of a new bacteria-based technology, which harnesses the power of microorganisms. The researchers genetically engineered a bacterium called Rhodopseudomonas palustris to capture carbon dioxide and convert it into lycopene through a process mimicking natural carbon fixation in plants. This method offers a sustainable and efficient alternative to traditional lycopene production methods, which are often resource-intensive and yield impure products. Lycopene, a natural pigment found in tomatoes and other red fruits and vegetables, is a potent antioxidant with potential applications in various industries, including pharmaceuticals and cosmetics. It is also believed to offer protection against various diseases such as heart disease, cancer, and diabetes, and may even support bone health. This breakthrough technology not only provides a sustainable way to produce lycopene but also contributes to combating climate change by capturing and utilizing carbon dioxide, a major greenhouse gas. This method could revolutionize the chemical industry by providing sustainable and environmentally friendly alternatives to traditional production methods that often rely on fossil fuels and generate harmful byproducts. Imagine harnessing the power of these microscopic factories to create biofuels, pharmaceuticals, and even biodegradable plastics, all while simultaneously combating climate change. Credits: CTTO, Hashem Al-Ghaili