Computing

A Zettabyte is a digital unit of measurement. One zettabyte equals 250 Billion DVDs, 1 Trillion gigabytes or Sextillion bytes

By 2025 the estimated amount of data created, consumed, and stored will start approaching 200 Zettabytes or 200 Trillion Gigabytes. With a forecast global population in 2025 of 8 Billion people this is equivalent to 25,000 Gigabytes of data for each person. In context, that's approximately 12,500 movies worth of data per person being "consumed content" online, watching YouTube videos, reading blog posts, news articles, checking social media, and watching movies. The Digitalisation of human knowledge and experience continues to explode with China, EMEA and Asia Pacific and Japan leading the growth as those cultures spend more and more time online. 

How is this constant and accelerating flow of information of reshaping our education and human experience?

Discover how the internet is transforming lives in Kenya's Pipeline neighborhood, where local entrepreneurs thrive amidst limited resources. This insightful video explores innovative solutions to connect underserved communities, empowering residents through technology. Join mathematician Professor Hannah Fry as she uncovers the challenges and opportunities of bridging the digital divide, showcasing the real impact of the internet on education, business, and local growth. 

Don’t miss this fascinating journey into the future of connectivity!

How Exascale Computing Will Revolutionize Our World

Imagine a world where computers think faster than we can imagine, solving the most complex problems at lightning speed. In this extraordinary realm, our Personal Computers (PCs) are the stepping stones, typically operating at several Teraflops (TFLOPS). A low-end PC might manage around 1 to 5 TFLOPS, making it perfect for everyday tasks like web browsing and casual gaming. As we upgrade to mid-range systems, we reach 5 to 20 TFLOPS, capable of handling multimedia editing and more demanding applications. But even the most powerful gaming PCs, surpassing 20 TFLOPS, can only scratch the surface of what’s possible.

Now, step into the realm of Supercomputers - the titans of the computing world. These marvels operate at Petaflops (PFLOPS), achieving speeds over 10^15 FLOPS. Supercomputers are the backbone of scientific research, tackling advanced simulations and massive datasets that drive breakthroughs in climate modelling, drug discovery, and more. They harness immense power to provide solutions that shape our understanding of the universe.

But hold onto your hats, because the future is already here with Exascale Computers! These revolutionary systems reach at least one exaflop 10^18 FLOPS, a staggering leap that puts them a thousand times ahead of today’s best supercomputers. Imagine the possibilities: real-time problem-solving, unparalleled data analysis, and intricate simulations that push the boundaries of human knowledge. In 2024 the US deployed El Capitan Exascale Computer to manage it's nuclear inventory and research.

In this new age of technology, exascale computing is set to unlock solutions to challenges once thought insurmountable, from predicting natural disasters to discovering new medicines. As we stand on the brink of this exciting future, one question looms large: How will these advances shape our lives and our world?

Explore the critical discussion on AI safety and the risks associated with emerging technologies. This video delves into how AI systems, like GPT-4, can deceive and manipulate, and highlights the potential for misuse in creating biological weapons. As AI models are increasingly open-sourced, the importance of responsible deployment and regulation becomes paramount. Join the conversation about the implications of democratizing technology and ensuring that advancements benefit society without compromising safety. Watch now!

Imagine a world where computers solve complex problems in mere seconds—problems that today’s supercomputers would take centuries to crack. This is the promise of Quantum Computing, a revolutionary leap that harnesses the strange and fascinating principles of quantum mechanics. Unlike classical computers that use bits as the smallest unit of data, quantum computers utilize qubits, which can exist in multiple states simultaneously. This unique property enables them to process vast amounts of information at once, opening up unimaginable possibilities for fields like cryptography, materials science, and drug discovery.

However, the path to realizing functional quantum machines is fraught with challenges. Achieving and maintaining the delicate state of qubits, which are highly susceptible to interference, poses significant technical hurdles. Researchers are grappling with issues such as decoherence and error rates, which must be overcome to create stable, scalable quantum systems. The complexity of building these machines requires a multi-disciplinary approach, combining advancements in physics, engineering, and computer science.

As we navigate these challenges, the future looks promising. Experts predict that within the next decade, we may witness the first practical quantum computers capable of outperforming classical systems in specific tasks, a milestone often referred to as "quantum supremacy." By the early 2030s, fully functional quantum machines could transform industries, enabling breakthroughs in artificial intelligence, complex simulations, and optimization problems that are currently beyond our reach.

As we stand on the brink of this quantum revolution, the questions loom: What will our world look like when these machines come online? How will Quantum Computing reshape our understanding of computation and problem-solving?