As AI boosts work, Taiwan hosted a chip talent camp for teenagers from around the world. The camp was delivered in both Mandarin and English to attract talent. Synopsys curated the camp with chip manufacturers and universities in Taiwan amid surging global demand for AI.
Development in the Intelligent Age demands that countries implement specialised education and technical and vocational schools tailored to specific industries. These interventions are aligned with targeted economic growth poles, special economic zones (SEZs), and regional prosperity engines. China’s “industry-education integration” seeks to foster growth hubs by aligning vocational training with regional key industries and emerging sectors. Training centres and joint tech projects in economic centres now focus on talent, technology, and investment. The “Luban Workshop” initiative stands out as particularly unique.
Named after the ancient Chinese craftsman Lu Ban, these workshops utilise advanced simulated industrial environments and the EPIP (engineering, practice, innovation, project) model to equip students with skills in AI, automation, and automotive engineering.
India is focusing on a “Skill Upgradation Strategy” to connect vocational schools with specific economic sectors to achieve its $5 trillion GDP target. The National Skill Development Corporation (NSDC) uses a Public-Private Partnership model, involving 36 Sector Skill Councils (SSCs) to define industry-specific job roles (Qualification Packs) and standards, ensuring that vocational training is relevant and market-driven.
Key actions include setting measurable (SMART) goals, utilising on-the-job training, mentoring, and incentivising employees to bridge gaps in AI, digital, and soft skills for future-proofing careers.
Singapore facilitates close collaboration between specialised training institutions and the private sector to ensure a job-ready workforce for its economic zones. The World Bank-supported East Africa Skills for Transformation and Regional Integration Project (EASTRIP) is a $293 million initiative that aims to enhance TVET quality and access in Ethiopia, Kenya, and Tanzania.
It focuses on 16 regional flagship institutes to address skills shortages in transport, energy, manufacturing, ICT, and agriculture, with a focus on future proofing the workforce. Uzbekistan’s “One Million Programmers” is an industry-specific initiative to train a large digital workforce, aligned with the country’s national digital strategy.
Thailand 4.0 is a 20-year (2017–2036) national strategy aimed at transforming Thailand into a high-income, innovation-driven economy by accelerating digital adoption and technological advancements. It focuses on shifting from agriculture, light industry, and heavy industry to high-value services, digital, and biotechnology.
They have established autonomous universities and specialised centres to boost research, development, and innovation in collaboration with the private sector. The World Bank has partnered with Poland to strengthen Work-Based Learning (WBL) in technical schools.
Canada’s Industry-Education Integration (IEI) project aims to co-construct standards and curricula between schools and industry. There is also a focus on integrating VR and AI into vocational curricula.
In these new learning contexts, coaches do not want participants to overuse generative AI to circumvent the learning process. Camp coaches used a modified version of Bloom’s taxonomy as a framework to determine what types of cognitive work can be offloaded to AI without compromising learning.
The coaches design outcomes to guide when and how AI can be appropriately used to support student learning. Facilitators clarify AI’s role in learning by first outlining how AI can supplement learning at each level of Bloom’s Taxonomy. They noted that it is unclear which cognitive skills and knowledge types AI can and cannot handle in learning contexts.
Effective AI integration requires institutions to reconsider Bloom’s Taxonomy. Some recent suggestions include a complete inversion of the taxonomy. At the Create Level, learners utilise prompt engineering to generate outputs. The learners then use AI to rapidly form opinions about the outputs. They then disassemble the AI outputs.
They then attempt to use the new information to make changes. After applying new information, students demonstrate greater agency by actively making connections. Finally, students must internalise and retain the information.
In other settings, Bloom’s Taxonomy was adapted to include factual, procedural, conceptual, and metacognitive dimensions to guide the pedagogically sound use of AI in learning. The revised taxonomy shows AI capabilities at each cognitive process level and knowledge type.
On the vertical axis, the levels of cognitive processes are listed; on the horizontal axis, the types of knowledge and the human and AI capabilities associated with each cognitive level and knowledge type are summarised. The resulting matrix is not a linear one-dimensional pyramid of cognitive abilities. Each cell in the matrix outlines what the AI can do and what the instructors and the students are expected to do.
At the heart of this revision of Bloom’s Taxonomy are the differences in how humans and AI process information. Human understanding involves judgement, reflection, drawing on experience, values, intentions, subject matter knowledge, self-knowledge, and empathy. Embodied cognition allows humans to develop concepts that resonate with lived experience. These are capacities unknown to AI.
Dr Fazal Ali completed his Master's in Philosophy at the University of the West Indies. He was a Commonwealth Scholar who attended the University of Cambridge, Hughes Hall, the provost of the University of Trinidad and Tobago and the acting president, and chairman of the Teaching Service Commission. He is presently a consultant with the IDB. He can be reached at fazalalitsc@gmail.com
