#graphene

Strong and Light? Our future spacecrafts will be made of Graphene Aerogel because it is strong and light. Dr Maggie Lieu @SpaceMog tells us about transparent Lightsails. Flying through space by beaming a focused light ray to the Graphene Aerogel Lightsail. Maggie explains that the Graphene Aerogel LightSail doesn’t need to be big to catch the sunlight. No, it sounds like she is saying a laser pen light is what… View On WordPress

Engineers Create Unusual Magnetic Material That Behaves Like Graphene - Science News Researchers at the University of Illinois have discovered a surprising mathematical connection between two areas of condensed-matter physics that were long considered separate. The electronic and magnetic behavior of two-dimensional materials both hold significant promise for future technologies. For many years, scientists treated these two properties as unrelated. Engineers at the University of… View On WordPress

Helio-Satiety Node Proje: Helio-Satiety Node – Sentetik “Breatharian” Protokolü Giriş: Ram Bahadur Bomjon ve Chi'nin Gerçek Doğası Kadim öğretilerde Chi (Qi) ; sadece bedendeki biyoelektrik değil, aynı zamanda bir mekanın ruhu, bir “idea"nın rezonansı ve evrenin görünmez dokusudur. Nepal ormanlarında aylarca yemek yemeden meditasyon yapan Ram Bahadur Bomjon gibi figürler veya Tai-Chi ustaları; biyolojik gürültüyü susturarak bu evrensel akışla beslenmeyi başarmış canlı kanıtlardır. Helio-Satiety Node , tarih boyunca sadece seçilmiş rahiplerin ulaşabildiği bu "Breatharian” (Nefesle Yaşayanlar) seviyesini, mistik bir ayrıcalık olmaktan çıkarıp teknolojik bir standarta dönüştürür. Amacımız, insanı “yemek yeme” gibi kaba bir enerji transferinden kurtarıp; mekanların ve kozmosun enerjisiyle doğrudan etkileşime giren “Homo-Universalis"e evriltmektir. Shutterstock Yutulduğunda mide içinde hacim kazanarak tokluk hissi yaratan bu yapı, bedenin "hayatta kalma” stresini ve ghrelin baskısını ortadan kaldırır. Enerji sisteminde ise, doğadaki fotosentez mantığını taklit eden “Dermal Foton Hasadı” teknolojisi kullanılmıştır. Gün boyu deriden emilen güneş enerjisi depolanır ve gece boyunca ısı olarak salınır. Bu süreç, sadece vücut ısısını korumakla kalmaz; metabolik gürültüyü (açlık sinyallerini) sıfıra indirerek, kullanıcının çevresindeki daha ince enerji akışlarına (Chi) odaklanmasına olanak tanır. Sonuç: Biyolojik Gürültünün Sonu, Saf Algının Başlangıcı Helio-Satiety Node ile insanlık, kaynak tüketen bir organizmadan, evrenle rezone olan bir varlığa dönüşür. Bomjon’un meditasyonunda yakaladığı o “dış dünyadan bağımsızlık” hali, artık her insanın varsayılan ayarıdır. Midenin sürekli talepkar sesi sustuğunda; insan zihni girdiği bir antik tapınağın enerjisini veya evrensel bir ideanın gücünü çok daha net algılayabilir. Uzay yolculuğumuzda yanımıza erzak kolileri almayacağız; çünkü gittiğimiz her gezegenin ışığı ve enerjisiyle beslenebilecek, o evrenin Chi'siyle uyumlanabilecek donanıma sahibiz.

ALT Graphene ‘scaffold’ recruits bone cells and helps the body regenerate fractures Experiments conducted in Brazil using laboratory rats have shown that graphene-based structures can act as a powerful ally in bone regeneration. These structures are made of sheets of the chemical element carbon that are just one atom thick. They can help heal fractures or bone loss. In the tests, the biocompatible matrix containing graphene facilitated nearly 90% repair of the damage sustained by the test subjects one month after the fracture was induced in the laboratory—a superior performance to that of other materials used in the research. The analysis of the performance of the biomaterial was published in the journal Scientific Reports . Daniela Franco Bueno of the Albert Einstein Israeli Faculty of Health Sciences and Guilherme Lenz e Silva of the Engineering School of the University of São Paulo (POLI-USP) coordinated the study. Read more.

Engineers make magnets behave like graphene Two dimensional materials have drawn intense interest because their electronic and magnetic properties could power future technologies. Scientists have traditionally treated these two behaviors as separate. Engineers at Illinois Grainger Engineering have now shown that they are connected by the same underlying mathematics. In a study published in Physical Review X, researchers from The Grainger… Engineers make magnets behave like graphene

Nanoparticles of Different Nature in Plant Biotechnology: Effectiveness, Safety, and Prospects of Application - Cytology and Genetics Abstract Data on the biological activity of nanoparticles of various natures—metallic (Ag, Cu, Zn, Ti), silicon (Si), and carbon nanomaterials—on plants are summarized. Their influence on the growth, development, and resistance of plants to biotic and abiotic stresses at the molecular, cellular, and organismal levels is considered. Special attention is paid to nanoparticles obtained by “green” synthesis, which are characterized by high bioactivity, biocompatibility, stability, and environmental safety. The physiological and biochemical effects of the action of nanoparticles are analyzed, in particular their influence on seed germination, photosynthetic activity, antioxidant system, expression of stress-induced genes, etc. It has been demonstrated that biosynthesized nanoparticles cause a positive effect without toxicity in most cases, while chemically synthesized analogues can cause significant negative changes in plants. The advantages of biosynthesized nanoparticles are emphasized: their high level of environmental safety, fungicidal, antibacterial, and antiviral activity. The need for further research to optimize dosage, methods of application, and assessment of long-term effects of nanomaterials, taking into account the balance between efficiency and environmental safety, is emphasized. The obtained results demonstrate the prospects for the use of nanomaterials in cell biology, physiology, and biotechnology of plants.

Chungnam National University Team Pioneers Defect-Free High-Quality Graphene Electrodes http://dlvr.it/TQb9Gg

New asphalt could make potholes extinct The results of a literally groundbreaking trial in the United Kingdom suggest that graphene-infused roads may pave the way into the future. According to Essex County officials , a pilot test outside of London indicates that lanes imbued with one of the world’s strongest known materials outperforms and outlasts traditional asphalt . The name of the new super-street combination? Gipave. Continue Reading.

GMG Doubles Energy Density of 6 Minute Charging Graphene Aluminium-Ion Battery Graphene Manufacturing Group has doubled the energy density of its graphene aluminium-ion battery while maintaining ultra-fast 6-minute charging, achieving up to ~49 Wh/kg at rapid charge and over 100 Wh/kg with longer charging—highlighting a major leap beyond traditional fast-charging technologies and paving the way for safer, lithium-free batteries in EVs, industrial equipment, and grid storage.

ALT Graphene sensors stay stable in liquids, boosting sensitivity up to 20 times Accurately measuring small shifts in biological markers, like proteins and neurotransmitters, or harmful chemicals in the water supply, can identify critical problems before they have a chance to impact patients or the environment. While some existing sensors can monitor the microscopic matter behind these issues, they often have limitations. A primary example is a device known as a field-effect transistor—a tiny component that controls the flow of electrical current in a system—that struggles to remain stable when exposed to liquid. Read more.

The Rising Importance of Graphene Oxide in Advanced Technology Graphene Transforming Advanced Material Innovation Graphene has emerged as one of the most revolutionary materials in modern science and engineering. Known for its exceptional strength, conductivity, flexibility, and lightweight properties, graphene is driving innovation across electronics, energy storage, healthcare, and environmental technologies. As research and commercialization continue to accelerate, graphene companies are expanding production capabilities and exploring new applications that push the boundaries of advanced material performance. Among the most significant derivatives gaining attention are graphene oxide and graphene coating , both of which are contributing to rapid technological advancement across multiple sectors. The Expanding Role of Graphene in Next-Generation Electronics Graphene’s exceptional electrical conductivity makes it highly valuable in advanced electronics and flexible device development. Engineers are increasingly integrating graphene into transistors, sensors, and communication devices to improve performance and energy efficiency. Flexible displays, wearable electronics, and smart sensors rely on graphene’s ability to maintain conductivity even when bent or stretched. Graphene companies are focusing on improving scalable manufacturing techniques to support commercial adoption of graphene-based electronics. The development of roll-to-roll production and chemical vapor deposition methods is helping manufacturers produce high-quality graphene materials more efficiently. These advancements are accelerating the transition of graphene technology from research laboratories to real-world applications. Graphene Oxide Enhancing Energy Storage and Water Purification Graphene oxide is gaining significant attention due to its unique chemical structure and versatility. It offers excellent dispersibility and functionalization capabilities, making it highly useful in energy storage systems and environmental technologies. Graphene oxide is being used to enhance lithium-ion batteries and supercapacitors, enabling faster charging, increased energy capacity, and longer operational lifespans. In addition to energy applications, graphene oxide is being widely researched for water filtration and desalination technologies. Its atomic-scale pores allow efficient removal of contaminants and salts from water, offering potential solutions for global water purification challenges. Graphene companies are actively investing in the development of graphene oxide membranes that can deliver efficient and cost-effective filtration solutions. Growth Trends Driving Graphene Commercialization The increasing adoption of advanced materials across electronics, renewable energy, and environmental solutions is supporting the expansion of graphene-based technologies. The total valuation associated with graphene solutions is expected to reach USD 1,609.3 million by 2030. This strong financial trajectory highlights the growing demand for graphene materials, particularly in applications that require high-performance conductivity, durability, and lightweight structural properties. Continuous investment by graphene companies in research and product development is further accelerating the commercial deployment of graphene-based technologies. Graphene Coating Revolutionizing Surface Protection Graphene coating has become a major innovation in protective surface technologies. These coatings provide exceptional corrosion resistance, scratch protection, and thermal stability. Industries such as automotive, aerospace, and marine engineering are increasingly adopting graphene coatings to enhance durability and extend product lifespan. Graphene coatings are also gaining popularity in consumer products and infrastructure projects due to their ability to improve surface performance without adding significant weight. The strong bonding properties of graphene coatings help protect materials from environmental damage, making them suitable for harsh operating conditions. Graphene companies are developing specialized coating formulations designed to meet the evolving needs of high-performance industrial applications. Biomedical and Healthcare Innovations Using Graphene Graphene is also driving advancements in biomedical technology. Its biocompatibility and high surface area make it suitable for drug delivery systems, biosensors, and diagnostic devices. Graphene oxide, in particular, is being explored for targeted drug delivery and medical imaging due to its ability to interact with biological molecules effectively. Researchers are utilizing graphene-based sensors to detect diseases at early stages by monitoring biological signals with high sensitivity. These healthcare applications demonstrate graphene’s potential to transform medical diagnostics and treatment solutions, improving patient outcomes through advanced monitoring technologies. Sustainability and Environmental Applications of Graphene Environmental sustainability is a major factor influencing graphene research and development. Graphene materials are being explored for renewable energy technologies, including solar panels and hydrogen production systems. Their ability to improve energy conversion efficiency supports global efforts to transition toward cleaner energy solutions. Graphene coatings are also contributing to sustainability initiatives by extending the lifespan of materials and reducing maintenance requirements. The durability offered by graphene coatings helps reduce resource consumption and supports environmentally responsible infrastructure development. Graphene companies are actively working to develop environmentally friendly production techniques that minimize energy consumption and resource waste. Challenges and Future Outlook for Graphene Technologies Despite its remarkable potential, graphene commercialization faces challenges related to large-scale production and cost efficiency. However, ongoing advancements in manufacturing technologies are improving material consistency and reducing production expenses. As graphene companies continue to refine production methods and expand application areas, the accessibility of graphene materials is expected to improve significantly. The integration of graphene into emerging technologies such as quantum computing, advanced sensors, and high-speed communication systems indicates a promising future for this material. Continued innovation in graphene oxide and graphene coating solutions is expected to support new product developments across diverse technological sectors. Conclusion: Graphene Shaping the Future of Advanced Materials Graphene is rapidly transforming modern material science through its exceptional performance characteristics and versatile applications. The growing influence of graphene companies , combined with innovations in graphene oxide and graphene coating, is driving significant technological progress across electronics, healthcare, and environmental solutions. As research and commercialization efforts continue to expand, graphene is poised to become a cornerstone material supporting next-generation technological advancements and sustainable development.

Coaxing bilayer graphene into a single diamond-like layer for industrial applications Graphene’s enduring appeal lies in its remarkable combination of lightness, flexibility, and strength. Now, researchers have shown that under pressure, it can briefly take on the traits of one of its more glamorous carbon cousins. By introducing nitrogen atoms and applying pressure, a team of scientists has coaxed bilayer graphene grown through chemical vapor deposition (CVD) into a diamond-like phase—without the need for extreme heat. The finding, reported in Advanced Materials Technologies , shows a scalable way to create ultrathin coatings that combine the toughness of diamond with the processability of graphene. How nitrogen and pressure transform graphene The work, led by Elisa Riedo, Herman F. Mark Professor in Chemical and Biomolecular Engineering, focuses on the delicate balance between two forms of carbon bonding. In ordinary graphene, carbon atoms connect through sp² bonds in a flat honeycomb arrangement, giving rise to its electrical conductivity and mechanical toughness. Read more.

GMG Doubles Energy Density of 6 Minute Charging Graphene Aluminium-Ion Battery Graphene Manufacturing Group has doubled the energy density of its graphene aluminium-ion battery while maintaining ultra-fast 6-minute charging, achieving up to ~49 Wh/kg at rapid charge and over 100 Wh/kg with longer charging—highlighting a major leap beyond traditional fast-charging technologies and paving the way for safer, lithium-free batteries in EVs, industrial equipment, and grid storage.

GrapheneOS refuses to comply with new age verification laws for operating systems — group says it will never require personal information March 22nd, 2026

New light-activated coating can kill stubborn germs Based on graphene, it can deal a knockout punch to germs on surfaces — even in your mouth Graphene is a wonder. This single layer of carbon atoms is stronger than steel and lighter than aluminum. It conducts electricity better than many other materials. And recent studies now show it can even kill germs. A new graphene-based material is being developed to harness that surprising superpower. To turn on this germ killer, all you need is a little light. Exposing graphene to light starts a chemical reaction, says Giacomo Reina. That reaction produces molecules that can take down microbes such as bacteria , viruses or fungi . A materials scientist, Reina works at EMPA, a research institute in St. Gallen, Switzerland. He was part of a team that unveiled the new material last year in EcoMat. Read more.

Graphene’s New Role in CO₂ Conversion! Global Tech Excellence Awards Visit Our Website: globaltechexcellence.com Nominate now :https://globaltechexcellence.com/award-nomination/?ecategory=Awards&rcategory=Awardee Contact us : contact@globaltechexcellence.com

.@LiveScience “Scientists have found a new way to manipulate #graphene to create a substance with record-breaking #energy & #powerdensity…‘This discovery could allow us to build fast-charging #supercapacitors that store enough energy to replace #batteries’” https://www.livescience.com/technology/electronics/graphene-supercapacitor-breakthrough-could-boost-energy-storage-in-future-evs-and-other-household-devices

GMG Unveils Graphene Aluminium-Ion Battery That Fully Charges in 6 Minutes Graphene Manufacturing Group Ltd has unveiled a breakthrough graphene aluminium-ion battery that can fully charge in just 6 minutes, marking a major leap in energy storage innovation. With fast charging, improved safety, and long-term performance benefits, this technology could transform applications across EVs, consumer electronics, and grid storage.

Battery Coin Launches AI Utility Token Sale to Support U.S. Graphene Production and Hemp-Graphene Battery Manufacturing for AI Data Centers

Why Graphene Coating Is Better Than Ceramic Coating — Must Read! Discover how graphene coating is changing the future of surface protection! Our latest blog explains what graphene coating is and why it offers superior durability, gloss, and heat resistance compared to ceramic coating . Thanks to advanced nanotechnology , graphene creates a stronger bond, making surfaces more water-repellent, scratch-resistant, and easier to clean. If you’re looking for a smarter upgrade to protect cars, solar panels, electronics, and everyday items — graphene nano coating is the next-gen solution you need to know about.Read the full blog https://arminano.wordpress.com/2025/11/26/what-is-graphene-coating-its-advantages-over-ceramic-coating/