Every time technology leaps, schooling needs a strategy for the gap that follows. The present leap is different in
speed and reach. Generative and predictive systems already draft, summarise, translate, classify images, filter
information streams, and personalise interfaces. If schools continue with familiar routines, the capability gap will
widen and communities will feel the strain that the OECD graph labels as ‘social pain’ [OECD 2019].
The way out is not a shopping list of apps. The way out is a deliberate plan to cultivate thinking habits that enable
students to work effectively with any system they encounter in the coming decade
The bold move is to teach how to think with and about technology in everyday schoolwork. Tools will rotate in
and out. Reasoning habits last. Three signals show that this is where education is headed at a system level.
First, global assessment is shifting. PISA 2025 adds Learning in the Digital World, which asks 15-year-olds to
solve problems with digital tools while managing their own learning. That is a clear statement that ‘thinking with
technology’ is part of what truly educated means for this generation [PISA 2025].
Second, policy frameworks embed these habits. England made Computing statutory in 2014 from the early years,
with expectations around algorithms, logical reasoning, debugging, and safe, purposeful use rather than narrow
software drills [DfE 2014]. CBSE introduced Artificial Intelligence as a skill subject in 2019 and released an
“Inspire” module to seed foundational exposure in lower grades. Both moves formalised habits such as data
awareness, model awareness, and responsible use [CBSE 2019–ongoing].
Third, guidance on responsibility is specific and practical. The U.S. Department of Education urges schools to
normalise checking, citing, and documenting AI-assisted work so that verification becomes routine, not an
afterthought. UNESCO asks schools to build capacity around privacy, bias, transparency, and teacher readiness.
Both sources place judgment and accountability at the centre of student work [US ED 2023; UNESCO 2023].
This survives tool change because tools will evolve, but these habits will not. A student who can frame a
problem, select and justify data, test outcomes, and explain decisions will adapt confidently to any system they
encounter in the future workplace.
ASSET has always measured thinking with unfamiliar material. In December 2025, the AI and Digital Thinking
subject will be launched for the first time (earlier branded as Ei ASSET Computational Thinking) and will
indubitably retain that spirit. In addition to assessing Computational Thinking skills, which we at Ei treat as the
fundamental skill for a digital world, the ‘thinking backbone’ of technology, students will also be tested on their
understanding of basic AI concepts and technologies, ethical issues and biases surrounding both AI and non-AI
tools, and media and information literacy
The question asks which prompt is most effective for a useful essay and why. The key is to identify B as a well scaffolded prompt that states purpose and structure usually yields a more relevant and reliable output than an open or length-maximising instruction. What the student learns is the broader skill of asking the right questions and framing it well. The student learns to plan, to make her criteria explicit, and to justify a choice using evidence about task requirements. That is verification and judgment in action via prompt engineering
The question asks which change would most likely improve performance. The best action is to add more horse
images, because the error likely arises from poor representation and background cues, and the fix targets this
skewed data distribution. But we also want the child to be wary of not taking away dog images, which might
improve performance on horses but reduce performance on dogs. Again, the student is practicing model sense
and data sense: diagnose the cause, change the dataset in a way that tests the hypothesis, then evaluate the
effect