INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS | Volume IX Issue X October 2025
Malaysia's policy framework, which encompasses the National Automotive Policy 2020, the Low Carbon
Mobility Blueprint 2021–2030, and associated TVET initiatives, provides substantial strategic momentum for
the adoption of electric vehicles and the development of skills [28], [32]. These documents engage institutional
stakeholders and convey national significance, both of which enhance the external environment [18], [19].
However, the evaluation indicates that there is still a discrepancy between policy and practice. Although
regulations establish EV objectives, operational instruments, such as new competency standards (NOSS),
specific financing sources, and explicit curriculum guidance, are still lacking [12], [13], [24]. Fullan's
methodology postulates that these gaps arise when policy modifications are implemented without concurrent
capacity development, cohesive leadership, and resources that enable stakeholders to implement innovation
rather than passively supporting it [20]. There is a lack of micro-level enablers, including unambiguous NOSS
updates, institutional financial allocations, and cross-agency coordination, in Malaysia, which reduces the
likelihood of uniform curricular reform throughout the TVET system. Nevertheless, policy consistency is
demonstrated at the macro level.
The findings suggest that the majority of automotive curricula continue to prioritise internal combustion engines
(ICE) and fail to adequately incorporate electric vehicle (EV)-specific capabilities, such as high-voltage safety,
power electronics, and battery management systems [26]. It is not sufficient to merely incorporate new modules
into the curriculum; rather, it is necessary to modify the learning objectives, evaluation methods, and sequencing
of lessons to illustrate the multifaceted nature of electric vehicles (EVs), which encompass electrical, electronic,
software, and mechanical components. UNESCO-UNEVOC (2023) and ILO (2022) emphasise that modular
curricula and competency-based approaches are effective in industries that experience rapid technological
advancements. The review suggests that Malaysia has been slow to implement modular or competency-based
micro-credentials, which would facilitate the incremental integration of electric vehicles and accelerate industry
adoption [12], [18], [19]. Rogers' diffusion attributes assert that the perceived relative advantage of EV curricula
will only accelerate adoption if schools are able to test small, visible successes (pilot modules, micro-credentials)
that demonstrate the employability of students and the satisfaction of employers [10], [25] .
The primary impediment is the competence of the teacher. Many automotive educators were educated in
mechanical disciplines and lack formal certifications or practical experience with electric vehicle (EV) systems
[11], [27]. According to Fullan (2007), educational reform is effective when educators continue to collaborate
and acquire new knowledge. The evaluation reveals that there are currently programs in place to assist
individuals in acquiring new skills, including the DPCCE and MARii seminars. Nevertheless, the system often
struggles to expand its capacity due to the short-lived, limited-scope, and small-scale nature of these programs
[23]. Without a planned, ongoing professional development (CPD) path that encompasses accredited instructor
certifications, industry secondments, and communities of practice, the transition to problem-based, simulation-
led learning will be slow and teacher readiness will remain uneven [27], [35].
Specific instruments, such as insulated workshops, battery testing benches, high-voltage safety gear, and
diagnostic software, are required to train individuals to work on electric vehicles. According to the 2023 MOHE
audit, these facilities are present in only a small number of polytechnics. Numerous educational institutions
encounter challenges in terms of purchasing, maintaining, and adhering to safety regulations [23]. Institutional
governance and financing models exacerbate these issues: TVET providers frequently operate with restricted
budgets and dispersed responsibilities in the areas of curriculum modification, procurement, and industry
collaboration. This point is further emphasised by Fullan's emphasis on cohesive leadership: institutional leaders
must possess the authority and resources to prioritise the integration of electric vehicles, coordinate planning
across departments, and manage the risks associated with high-voltage systems [20]. Rogers' concept of
trialability posits that flagship investments, such as well-resourced pilot laboratories and centres of excellence,
can demonstrate feasibility. Nevertheless, a significant number of institutions will demonstrate reluctance in
adopting these models unless their benefits are apparent and they are scaled [10], [18], [19].
For the acquisition of equipment, apprenticeships, collaborative design, and current technical expertise, industry
collaborations are indispensable [10]. MARii's CoE-FM and certain OEM-TVET partnerships are promising
examples of practice, as they offer pilot training, common infrastructure, and competency frameworks [18], [19].
Nevertheless, the review demonstrates that these partnerships are primarily between a limited number of model
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