Category: Measuring

  • Measuring the impact of learning with AI in Sierra Leone and beyond

    Measuring the impact of learning with AI in Sierra Leone and beyond

    The results from this pre-registered trial suggest that AI can be a powerful pedagogical partner — not by replacing teachers, but by augmenting their reach. This study is part of our ongoing effort to build a global evidence base for the impact of AI on teaching and learning.

    Beyond the answer engine: protecting critical thinking

    A common concern is that generative AI could become a shortcut for students, potentially bypassing the challenging yet essential cognitive effort required for deeper learning. Guided Learning is designed to address this concern: it’s built from years of research and work in our LearnLM efforts to be pedagogically-grounded and specifically tuned to prioritize building understanding over providing direct answers.

    The data from Sierra Leone suggests this approach is working. An analysis of over 113,000 interactions exchanged during our trial revealed that students used the tool to build conceptual understanding in 91.4% of conversations, rather than simply seeking solutions. Gemini responded by posing scaffolding questions in 76% of its messages, providing direct solutions in only 2% of cases. This “Socratic” interaction ensures that the cognitive heavy lifting remains with the student.

    A teacher-led intervention

    The success of this trial was built on a partnership between AI and educators, where teachers remained firmly at the center of the experience. Educators designed the lessons, set the objectives, and facilitated classroom discussions that drove learning.

    In focus groups, teachers reported that Gemini also supported their own professional growth. By using the tool for lesson preparation, they discovered new ways to explain familiar topics like fractions. Many described a shift from “lecturers” to “facilitators,” moving through the classroom to support pairs of students as they navigated their own learning journeys.

    To help others implement similar programs, we are releasing a teacher training guide with materials created in collaboration with Fab AI, including the specific protocols used for this study.

    Measuring the impact

    The quantitative results were significant. Students using Guided Learning saw a gain of +0.258 standard deviations in their math scores compared to the control group. In practical terms, this represents roughly 1.2 to 1.7 years of typical learning progress achieved within the eight-week trial.

    Students in classrooms where their teachers incorporated Gemini into roughly half their lessons to meet a target of 12 hours during the trial saw even higher gains—roughly 1.8 to 2.5 years of progress. Engagement was also remarkably high: 69% of students met or exceeded usage targets, far surpassing the five percent typical for voluntary educational technology (famously known as “The Five Percent Problem”). That means students were not only engaged but they enjoyed coming to class more.

    Beyond the numbers, we also saw a profound shift in behavior. Students reported enjoying math more and actively engaged with learning beyond regular instruction. Crucially, over time, their conversations and questions became more learning-oriented, shifting toward skill building instead of seeking direct solutions. Specifically, skill-building queries rose to 90% by the final week — up from 68% in the first week — while solution-seeking questions dropped from 25% to 10%, proving students didn’t just want answers, they wanted to understand how they got there.

    To further understand the impact of Guided Learning on student learning, we are conducting a series of additional pre-registered RCTs globally. In the interest of advancing open science and disseminating timely insights, we are also releasing a playbook on our approach to RCTs with Fab AI to help others run faster, scalable studies aligned to their needs and contexts — to uncover robust localised evidence that keeps pace with technological advances. We will continue to publish our results and learnings as we conclude subsequent RCTs to construct a more comprehensive, cross-country evidence base, which we hope will inform responsible development of AI across the learning ecosystem. Additionally, our support of the Global AI for Learning Alliance (GAILA) will accelerate these commitments and others through collective action.

    The path forward

    Though these results are promising, they also highlighted the challenge of the “achievement gap.” While the majority of students benefited, those who entered the trial with stronger math skills benefited most. This underscores an important need: to offer tools that deliver the strongest gains for the students who need it most.

    Looking ahead, we plan to expand these trials to other countries and probe more deeply into areas like metacognition and relational intelligence to capture a more holistic view that explores the nuanced complexity of learning. By combining the relational foundation of a teacher-led classroom of students with the personalized, scaffolding capabilities of AI, we can help ensure that technology serves as a bridge to meaningful learning opportunities for all.

    1 We also received support from Google.org and the Gates Foundation to conduct the trial. EducAid, Laterite and Oxford MeasurEd also collaborated with us.

  • Measuring progress toward AGI: A cognitive framework

    Measuring progress toward AGI: A cognitive framework

    We’re introducing a framework to measure progress toward AGI, and launching a Kaggle hackathon to build the relevant evaluations.


    Ryan Burnell

    Research Scientist, Google DeepMind

    Oran Kelly

    Product Manager, Google DeepMind


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    This content is generated by Google AI. Generative AI is experimental

    Artificial General Intelligence (AGI) has the potential to accelerate scientific discovery and help solve some of humanity’s most pressing problems. But it can be difficult to know how close we are to this key milestone, because there’s a lack of empirical tools for evaluating systems’ general intelligence. Tracking progress toward AGI will require a wide range of methods and approaches, and we believe cognitive science provides one important piece of the puzzle.

    That’s why today, we’re releasing a new paper, “Measuring Progress Toward AGI: A Cognitive Taxonomy,” that presents a scientific foundation for understanding the cognitive capabilities of AI systems.

    Alongside the paper, we are partnering with Kaggle to launch a hackathon, inviting the research community to help build the evaluations needed to put this framework into practice.

    Deconstructing general intelligence

    Our framework draws on decades of research from psychology, neuroscience and cognitive science to develop a cognitive taxonomy. It identifies 10 key cognitive abilities that we hypothesize will be important for general intelligence in AI systems:

    1. Perception: extracting and processing sensory information from the environment
    2. Generation: producing outputs such as text, speech and actions
    3. Attention: focusing cognitive resources on what matters
    4. Learning: acquiring new knowledge through experience and instruction
    5. Memory: storing and retrieving information over time
    6. Reasoning: drawing valid conclusions through logical inference
    7. Metacognition: knowledge and monitoring of one’s own cognitive processes
    8. Executive functions: planning, inhibition and cognitive flexibility
    9. Problem solving: finding effective solutions to domain-specific problems
    10. Social cognition: processing and interpreting social information and responding appropriately in social situations

    Bubbles all connecting to the central bubble

    To understand AI capabilities across these cognitive abilities, we propose a three-stage evaluation protocol that benchmarks system performance in relation to human capabilities:

    1. Evaluate AI systems across a broad suite of cognitive tasks covering each ability, using held-out test sets to prevent data contamination
    2. Collect human baselines for the same tasks from a demographically representative sample of adults
    3. Map each AI system’s performance relative to the distribution of human performance in each ability

    Going from theory to practice

    Defining these cognitive abilities is a crucial first step, but we need more than a framework to measure progress. To put this theory into practice, we are launching a new Kaggle hackathon — “Measuring progress toward AGI: Cognitive abilities”. The hackathon encourages the community to design evaluations for five cognitive abilities where the evaluation gap is the largest: learning, metacognition, attention, executive functions and social cognition.

    Participants can use Kaggle’s newly launched Community Benchmarks platform to build and test their evaluations against a lineup of frontier models.

    We are offering a total prize pool of $200,000: $10,000 awards for the top two submissions in each of the five tracks, and $25,000 grand prizes for the four absolute best overall submissions. Submissions are open March 17 through April 16, and we’ll announce the results June 1. Head over to the Kaggle website to start building.

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