Robotic micro-factories are rapidly emerging as one of the most disruptive innovations in global construction, offering a scalable, automated way to build low-energy homes faster, cheaper, and more sustainably than traditional methods. Let’s take a closer look at just how AUAR’s automated building system could change everything.
The construction industry is undergoing a quiet revolution. In the wake of increasing demand for low-carbon materials, timber construction is being hailed as a frontrunner in the race to decarbonise buildings. Known for being lightweight, renewable, and easy to work with, timber is turning heads in commercial and public projects—from schools and offices to high-rise flats.
But behind the sleek wooden facades and impressive carbon offset claims lies a more complex story.
Electric motor innovation doesn’t always come from a lab—sometimes it’s a 17-year-old in a garage. Let’s go back in time to 2022. Then 17-year-old inventor Robert Sansone sparked global attention with a breakthrough electric motor design that worked without rare-earth magnets.
Built using 3D-printed parts and simple materials, his prototype achieved 39% more torque and 31% greater efficiency than traditional designs. Now, as the automotive industry continues to battle resource scarcity and cost pressures, Sansone’s innovation is being re-examined as a symbol of what’s possible when fresh thinking meets engineering fundamentals.
In a striking advancement in bioresorbable technology, researchers at Binghamton University in New York have created a dissolvable battery that runs on probiotics—the same friendly microbes commonly found in yoghurt. What sets this development apart isn’t just its novelty, but the potential it unlocks across sectors like biomedical implants, environmental sensors, and even temporary military electronics.
In search of a sustainable future, researchers have taken a big leap forward with the creation of a cement battery; a revolutionary innovation that could transform ordinary buildings into self-sustaining, energy-storing power hubs. Developed by scientists from the University of Bordeaux and the University of the Basque Country, this cutting-edge cement battery combines structural strength with energy functionality, representing a significant milestone in energy-efficient building technology. Let’s take a look at what is consists of and how it works.
The energy sector is in a constant state of evolution, with researchers and innovators around the world seeking new ways to power our planet sustainably. One particularly thought-provoking concept making waves in recent headlines is the idea of generating electricity from the Earth’s rotation — not through wind or tidal forces, but from its movement through the planet’s own magnetic field. Could this be a breakthrough in clean energy? Or is it just an intriguing theory that lacks real-world viability?
The automotive world is on the brink of a revolution, and hydrogen race cars are at the forefront of this transformation. As the motorsport industry increasingly looks for sustainable alternatives to traditional fuel, hydrogen cars are fast becoming the game-changing solution. This article explores how hydrogen race cars work, their benefits, and the role they could play in the future of motorsport.
The global demand for lithium, a critical component in electric vehicle (EV) batteries, continues to soar. In response, researchers have developed an innovative method for lithium extraction that promises to enhance both the efficiency and sustainability of battery recycling. This breakthrough could significantly impact various sectors, including automotive, aviation, and energy.
EV battery swapping is currently a hot topic, and rightfully so, given the remarkable progress of electric vehicles since their inception. With advancements in battery tech, EVs now boast extended ranges and quicker charging, making them a more practical choice for daily driving. Nonetheless, concerns like range anxiety and lengthy charging times still hinder widespread adoption. This is where EV battery swapping technology shines, offering a solution that tackles both challenges head-on.
Graphene in concrete is the next big talking point in the construction sector and for good reason. This extraordinary material consisting of a single layer of carbon atoms, has been heralded as a ‘wonder material’ due to its remarkable properties. Despite its seemingly delicate structure, graphene boasts unparalleled strength. This feature has propelled its use across various industries, fundamentally altering conventional materials and methods. One of the most intriguing applications of graphene is in the realm of construction, particularly in the enhancement of concrete.
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