Category: Technology

  • The Silicon Race – Google’s Custom AI Chips

    The Silicon Race – Google’s Custom AI Chips

    As much as artificial intelligence (AI) has become a vital tool in many corporations, it has simultaneously become one of the drivers of the economic and business world. In terms of manufacturing, some of the leading companies have been Google, Apple, and Nvidia, with the latter dominating markets with its GPU chips. 

    The graphics processing units Nvidia has been creating have greatly contributed to the success of the AI industry, but were not designed with artificial intelligence in mind. These units can perform multiple calculations at once (parallel calculations), which is necessary for the calculations needed for large AI models. However, as they were originally designed to assist with computer graphics, they have some inefficiencies in translating calculations.

    However, in April 2026, Google announced an extended partnership with Intel to continue its decade-long development of TPUs. These tensor processing units are designed solely for matrix multiplication, the main calculations needed to run and train large AI models. Matrix multiplication are calculations with vast arrays of numbers performed at the same time. 

    Therefore, since 2016, Google set out to develop chips that were highly specialized for machine learning workloads rather than general computing. Optimized for both AI training and interference, the latest TPU generations are designed to deliver more performance per dollar and have better energy efficiency compared to previous generations. While the GPU’s ability to perform parallel calculations greatly aided the training and maintenance of several AI models, TPUs were designed wholly around the idea of running large AI models. This specialization sets them apart and creates new opportunities for Google and Intel in their partnership.

    Apart from the increasingly efficient developments, the creation of custom TPUs also introduces Google as a stronger competitor against Nvidia and eliminates the need for the former to rely on the latter for chips. Several companies, such as Anthropic and Meta, have also looked to the consumption of TPUs instead for their capacity, setting the innovation up as a commercial product rather than an internal tool. At this point, the race is shifting: the rivalry for the better chip has evolved into racing for the chip with the best AI infrastructure ecosystem.

    This extended partnership also comes at a key time in terms of the supply chain. The demand for semiconductors has only grown with the increasing development of AI, and has caused the manufacturing capacity to stretch too thin. Google has reportedly explored further manufacturing relationships with Intel and even Samsung, amidst the TPU partnership. The end goal is to be able to diversify production and reduce reliance on a single supplier (ex. Nvidia) as AI demand grows.

    However, the production of TPUs is not all sunshine and rainbows for the tech world. As with any new technology, the tensor processing units come with some drawbacks. Since they have been developed to serve the training and running needs of large AI models, the chips are highly specialized. While this may prove useful at times, the specification can make it less flexible than general-purpose GPUs that have been tried and tested over the years.

    Additionally, the introduction of TPUs does not eliminate Nvidia as a competitor for Google, as they still benefit from the mature software ecosystem being created. Furthermore, building custom silicon is not something that will happen overnight. Despite the decade of research and development Google has accomplished so far, the technology will still need an enormous investment for creation and development cycles to ensure the best product.

    AI does not seem to be slowing down in its climb, and neither do the companies behind it. Time will show us how beneficial Google’s TPUs will become, but it is safe to say that the AI race will revolutionize several other streams of technology.

  • The Evolution of Autonomy Generative AI to Agentic AI

    The Evolution of Autonomy Generative AI to Agentic AI

    Artificial Intelligence – who hasn’t heard of it?


    For the past few years, we have truly lived in the world of AI innovation. And, of course, the most common places we have seen it used are in generative AI models such as ChatGPT, Gemini, Claude – the list goes on. Recently, however, the industry has seen the birth of a new model type: Agentic AI. These new models, including OpenClaw, can make autonomous decisions, opening an entirely new door across multiple industries.

    What Is Generative AI?

    To start, let’s get a background on the models we’re more familiar with. Generative AI is largely used for content creation, such as images, text, code, and audio, after receiving a prompt from a human user. While this in itself is a great accomplishment, it is still a reactive model– it can only respond to the instructions it is given. Beyond this, generative artificial intelligence has become highly skilled at understanding language and aiding in more creative ventures.

    However, it has its flaws. For one, generative AI models are not memory-retentive. They will not carry information over between sessions, sometimes even in the same one if the interaction is prolonged. This makes them unreliable for long-term projects and jobs.

    As we discussed before, a model like ChatGPT will not go beyond whatever the user asks of it. In other words, it has no autonomy. It’s a tool made for people to use and interact with, not one that will take its own initiatives. But as we will see, that may not be the case anymore.

    What Is Agentic AI?

    Agentic AI, in contrast to generative AI, has been designed especially for autonomy, meaning that it will be able to make its own decisions, among numerous other developments. According to the Aziro Marketing Team, agentic AI will take the large language models (LLMs) in use a step further by incorporating “goal-oriented planning, persistent memory, and execution engines” (Aziro 25). These assistive models will be able to take high-level goals and be able to make the decisions and actions to meet them, regardless of human interaction.

    Agentic AI is built on a reasoning-to-action loop. This can generally be broken down into five steps:
    Task decomposition – A larger goal is broken up into smaller subtasks
    Delegation – These tasks are split amongst relevant tools or agents
    Observation – The AI reviews the results of each section, modifying outputs or adjusting the framework accordingly
    Synthesis – It relates the outputs to certain tasks to complete the goal
    Adaptation – Based on results, the agent modifies its “route” and continues the loop
    From a human standpoint, this reasoning process can also help users and teams relying on the AI’s task management to trust its decisions more, as it should be able to provide concrete reasoning for each of its actions.

    As of right now, a major example of agentic AI is the tool OpenClaw. OpenClaw allows users to create various assistants for a multitude of desktop applications, including WhatsApp, Gmail, etc. These assistants are able to complete tasks within these apps, including sending emails, organizing schedules, and handling web research. The employment of AI will certainly propel numerous fields, including cybersecurity, healthcare, and finance.

    The Dilemma of Ethics

    As helpful as this type of model may seem, it certainly has its drawbacks, and at the forefront of worries at the moment is ethics. While the AI is being trained to mimic human decision-making, it may also take actions that go against common morals due to its reasoning process. A Boston University professor, Van Alstyne, shares his thoughts, questioning, “What happens when agent decision ability exceeds its formal authority?” (Murray 25). These questions of authority would be especially present in high-stakes settings, including government decisions and security.
    To mediate the potential effects of unlimited control, he states that companies will have to place rules on what the agents can do, as well as create specific interfaces that they can use.

    Another pressing issue is within the job market. With agentic artificial intelligence being designed specifically to take the place of human tasks, we would be faced with even more job insecurity than what we are currently experiencing with AI’s effects. Currently, around 13% of Americans say they have lost their jobs due to AI or the like, and with the introduction of agents, this is sure to increase. It will be up to the industry to be able to find a balance, allowing for the wonders of AI to develop while also protecting the careers of many.

    Agentic AI represents a great step forward in the world of technology and is sure to improve upon its many capabilities. Changing from a skilled chatbot to an extraordinary assistant, this evolution will surely bring open doors in numerous industries for greater potential. With its impact reaching far and wide, it will be exciting to see where it takes us next.

    Authored By Diya Borundiya and Anika Yadiki