Programs
- M. Tech. in Automotive Engineering -Postgraduate
- B. Sc. (Hons.) Biotechnology and Integrated Systems Biology -Undergraduate
For the past 15 years, AMMACHI labs has been training women on several vocational trades to enhance their skills, tools, and market reach. This research project complements the initiative by providing neurocognitive data-driven insights on dexterous vocational skill performance specifically on tailoring skills.
We propose to develop a multi-modal system architecture blending the sub-domains in Cognitive Sciences and Artificial Intelligence (AI). We capture multi-modal data from various sources, and analyse the data to better understand what are the key elements that characterize a particular skill, and how these key elements of the skill are effectively transferred. By effective transfer we mean, both aspects, the teaching and the learning of the skills. To achieve this, we have identified three main components that form the structure of the proposed work:
Two main goals of our R&D program energize our work. The first goal is scientific. We want to better understand skills development with the use of technologies that allow those understandings to have depth, precision and sophistication. And it is our hope that what we will learn in our work can serve as a platform for developing richer models of skill development. The second goal is social. We wish to harness those scientific understandings so as to foster skills development so that people who have been taught skills can become gainfully employed
The core problem is the lack of accessible, effective hands-on vocational training for rural, low-literate, and marginalized communities, particularly in manual dexterity-based skills. This significantly limits employment opportunities for women and informal sector workers, who make up a large portion of India’s unskilled labor force. Through more than a decade of engagement across 21 Indian states, AMMACHI Labs has observed that existing training methods are often inaccessible, inconsistent, and poorly aligned with learners’ cognitive and physical capabilities.
The broader challenge is to design technology-based interventions that not only teach vocational skills but also enhance the precision and understanding of skill development trajectories. This involves two key issues:
Addressing these challenges will enable the creation of a scalable, AI-driven training ecosystem that supports personalized instruction, promotes behavioral change, and facilitates certifiable skill acquisition, ultimately bridging a critical workforce development gap.
Our solution is a multimodal, AI-driven cognitive training system that enhances vocational skill learning through:
Our intervention targets both the teaching and learning components of vocational education, and involves hardware tools, data acquisition devices, and cloud computation for deep learning models.
Lead Institution:
Collaborating Partners:
Team Members / Roles:
Field
Cognitive Science, Skill Development
Funding Amount
₹ 35.41 Lakhs INR
Project Duration
19th March 2024 to 19th February 2028
Towards Objective 1, we are assessing differences in psychomotor skill on manipulative dexterity tests of experts and novices
In the next phase of this research, we will use EEG based measurements to gain insights into the cognitive demands of skill performance to further clarify how experience influences cognitive processing. Further we will look at the effect of cognitive training on the cognitive load of participants during task performance.



