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ISSN No. 2454-6186 | DOI: 10.47772/IJRISS |Volume IX Issue XXVI October 2025 | Special Issue on Education
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Scaffolded Framework to Build Student Resilience in Work-Based
Learning at FTKIP-UTeM Malaysia
Hadzley Abu Bakar
1*
, Mohd Basri Ali
1
, Nur Ana Rosli
1
, Shaiful Anwar Ismail
1
, Siti Rahmah Shamsuri
1
,
Umi Hayati Ahmad
1
, Safarudin Gazali Herawan
2
1
Fakulti Teknologi dan Kejuruteraan Industri dan Pembuatan, Universiti Teknikal Malaysia Melaka,
Hang Tuah Jaya, 76100 Durian Tunggal, Melaka, Malaysia
2
Industrial Engineering Department, Faculty of Engineering, Bina Nusantara University, Jakarta,
Indonesia
*
Corresponding Author
DOI: https://dx.doi.org/10.47772/IJRISS.2025.903SEDU0644
Received: 18 October 2025; Accepted: 24 October 2025; Published: 13 November 2025
ABSTRACT
Work-Based Learning (WBL) is an educational model that emphasises hands-on industry training to prepare
students for professional demands. However, many students experience a mismatch between their abilities and
industry expectations, often requesting placement changes within the first six months. This paper adopts an
autoethnographic approach, drawing on three cohorts of engineering students to reveal a recurring pattern of
narrative manipulation aimed at exiting WBL placements. These behaviours often stem from struggles in
managing the socio-emotional realities of work life. In response, this study critiques overly structural WBL
models and introduces the WBL Scaffolded Resilience Management (WSREM) framework, a multi-semester
intervention beginning in the first semester. Each term, the WBL coordinator visits classrooms to share real-
world narratives and set expectations for future placements. Students are briefed on the mental and physical
readiness required to navigate a one-year WBL experience. Initial implementation of the framework revealed
high dropout intentions where nine students in the first year and six in the second. However, in the third year,
only two students considered early withdrawal, highlighting the framework’s effectiveness. The WSREM
approach, grounded in progressive advising, expectation setting, and peer-to-peer storytelling, equips students
with the resilience and behavioural awareness needed to face, rather than escape, workplace challenges. This
project is developed based on a case study conducted at the Faculty Teknologi dan Kejuruteraan Industri dan
Pembuatan (FTKIP), Universiti Teknikal Malaysia Melaka (UTeM), providing a Malaysian perspective on
enhancing WBL resilience through structured emotional and behavioural preparation.
Keywords: Work-Based Learning (WBL), Student Resilience, Expectation Management, Engineering
Education, Autoethnography.
INTRODUCTION
In the era of Industry 4.0, the call for industry-ready engineering graduates has positioned Work-Based
Learning (WBL) as a central pillar of technical higher education curricula. The Malaysian Technical
University Network (MTUN) has embraced this mandate by introducing intensive WBL programmes,
including a full-year industrial placement. WBL is a mode of study in which students undertake a one-year
industrial training placement, during which they are not only engaged in full-time professional work but also
complete industry-based academic courses. Consequently, students attend classes within the industrial setting
itself, effectively blending academic learning with authentic workplace experience ((Rohanai, 2024; Yusoff,
2024). WBL bridges the gap between theory and practice by integrating structured academic programmes with
real-world industrial environments, enabling students to apply theoretical knowledge while developing
essential professional competencies (Rienties, 2023). In this model, students are expected to demonstrate not
only technical proficiency but also resilience, adaptability, and socio-emotional competence to thrive in
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS |Volume IX Issue XXVI October 2025 | Special Issue on Education
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today’s dynamic and demanding workforce (Rienties, 2023). This study builds upon this context through a
case-based implementation at the Faculty Teknologi dan Kejuruteraan Industri dan Pembuatan (FTKIP),
Universiti Teknikal Malaysia Melaka (UTeM), examining how structured resilience management can enhance
student preparedness and retention throughout the WBL experience.
Table 1 presents the design of the Development Work-Based Learning (WBL) model, which is organised into
four sequential phases, each with a specific focus, expected output, and implementation responsibility. The
first phase, Industry Engagement, involves securing committed host companies. The second phase, Student
Placement, focuses on matching students with industry partners and managing logistics. The third phase,
Material Development, is dedicated to designing workplace-aligned assignments and assessment rubrics during
the immersion period. The final phase, Execution and Assessment, requires students to work full-time during
the day while completing academic assignments outside of work hours, with final assessments conducted
remotely through submitted reports. This integrated approach enables real-time development of learning
materials, facilitates smooth student placements, and ensures that assessments are both practical and
contextually relevant (Ferns et. al, 2024; Dean et. al, 2025) .
Table 1: The development of WBL Model
Phase
Key Activity
Expected Outcome
Implementer's Responsibility
Phase 1: Industry
Engagement
Identify & secure agreements
with partner companies.
Company commitment
to host students.
Sourcing & persuading
companies.
Phase 2: Student
Placement
Place students in agreed-upon
companies.
Student commences
industrial placement.
Managing placement logistics.
Phase 3: Material
Development
Develop T&L materials
(assignments,
rubrics) while students are in
the industry.
A full set of
assessment materials.
Designing assignments &
rubrics.
Phase 4:
Execution &
Assessment
Students work & collect data
by day; complete assignments
at night/weekends. Assessment
is 100% report-based.
Comprehensive final
student reports.
Briefing & supervising
remotely.
Despite gaining global recognition and being adopted by Malaysia’s polytechnic institutions and the Malaysia
Technical University Network (MTUN), Work-Based Learning (WBL) is still developing and often
implemented in a fragmented way, driven more by policy than by well-coordinated pedagogical planning.
While WBL is widely valued as an essential part of technical and vocational education, its execution varies
significantly across institutions. A key challenge noted in both research and practice is fostering professional
resilience, which refers to students’ ability to adapt to stress, recover from setbacks, and persist through
workplace challenges (Buchan et. al 2022; Brenner & Dymond, 2023). Without this critical skill, students risk
disengagement, limited personal growth, and difficulties succeeding in demanding professional settings.
This challenge becomes most visible when students begin their industrial placements. The shift from a
structured academic classroom to the dynamic reality of a workplace can be jarring, often leading to
discomfort, resistance, and profound self-doubt. Students who are used to predictable, supportive learning
environments often struggle to meet the fast-paced, results-driven expectations of industry. This expectation-
reality gap can manifest as dissatisfaction, disengagement, and even formal requests to change industrial
placements that directly compromise the goals of Work-Based Learning programs (Hodges & Eames 2021;
Winchester et. al, 2023).
Allowing this situation to continue risks several negative consequences. Students might display inconsistent
skill development due to frequent changes in placements and may be seen as lacking the resilience necessary
for future challenges. Moreover, permitting transfers for some can create a ripple effect, encouraging others to
follow and threatening the overall integrity of the WBL program. These issues underscore the urgent need to
proactively reshape students’ attitudes and expectations to keep them engaged throughout WBL.
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS |Volume IX Issue XXVI October 2025 | Special Issue on Education
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To address these challenges, resilience should be nurtured through structured reflection and scaffolded
strategies that build autonomy, confidence, and realistic expectations. This paper proposes a scaffolded
framework specifically designed to strengthen professional resilience in Malaysian WBL programs. By
emphasizing progressive exposure, guided reflection, and mentorship and integrating quantitative data from
student participants alongside an autoethnographic approach, this framework aims to bridge the gap between
theory and practice and better prepare students to navigate the real-world demands of WBL.
METHODOLOGY
This study offers an insider perspective, with the researcher involved in all stages of the Work-Based Learning
(WBL) programme, from curriculum design and industry sourcing to student supervision and problem solving.
As a lecturer and coordinator, the researcher’s dual role enabled direct data access and deeper insight into
institutional and student dynamics. This position added valuable context but also potential bias. To manage
this, the researcher maintained consistent record, while triangulation with peers, mentors, and industry
supervisors strengthened objectivity and transparency. This role revealed key gaps between research ethics,
policy, and practice, grounding interpretations in evidence over opinion. A mixed-method case-based design
was used. Data came from observation logs, intervention records, reflective journals, and feedback from
industry mentors and academic coordinators. Qualitative data were analyzed for recurring behavioral and
emotional patterns, and results were verified through peer debriefing to reduce bias. Quantitative data from
post-intervention surveys were analysed descriptively, with effect size used to assess improvement in student
resilience and engagement.
Table 2 summarises the key early findings. An analysis of placement change requests from two academic
cohorts (Cohort 1: n = 21; Cohort 2: n = 23; total n = 44) revealed key factors affecting continuity and
satisfaction in Work-Based Learning (WBL) placements. During the second and third months, the adjustment
phase presents nine students (42%) in Cohort 1 and seven (30%) in Cohort 2 requested company transfers,
averaging a 36% change rate.
These findings raise concerns about students’ readiness for workplace realities and the alignment of
institutional preparation with industry expectations. Self-reported reasons varied. The most common was being
assigned unrelated tasks, reported by 28% of Cohort 1 and 13% of Cohort 2 (average 20%), indicating a
mismatch between academic training and job roles. Safety concerns were noted by 14% and 8%, while
conflicts with staff appeared in only 4% and 3%.
Triangulated data from academic mentors, industry supervisors, and students revealed deeper causes. The main
issue was difficulty accepting feedback, affecting 23% of Cohort 1 and 8% of Cohort 2 (average 16%),
showing a gap in emotional maturity and resilience. Misunderstandings of task scope appeared in 19% and 8%
(average 14%), suggesting the need for clearer role communication. Personal issues, such as transport
problems, contributed to 9% and 4% of cases.
Table 2: Analysis of Student Placement Change Requests (Cohorts 1-2, n=44)
Cohort 1 (n=21)
Cohort 2 (n=23)
Average
9 (42%)
7 (30%)
~36%
Stated Reasons by Student:
3 (14%)
2 (8%)
~11%
6 (28%)
3 (13%)
~20%
1 (4%)
1 (3%)
~5%
Actual Root Cause After Tripartite Investigation:
5 (23%)
2 (8%)
~16%
4 (19%)
2 (8%)
~14%
2 (9%)
1 (4%)
~6%
Note. Data reflect formal placement change requests during the second and third months of Work-Based
Learning (WBL) placements for Cohorts 1 and 2 prior to the introduction of the WSREM framework.
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS |Volume IX Issue XXVI October 2025 | Special Issue on Education
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Proposed Framework: The WBL Scaffolded Resilience Management (WSREM) Framework
Purely structural interventions are insufficient to address the behavioural challenges observed. A broader
developmental approach is needed, focusing on students’ growth over time. The Work-Based Learning
Scaffolded Resilience Management (WSREM) Framework is introduced as a multi-semester intervention
designed to build professional maturity and manage expectations from the start of the academic journey. It is
based on the principle that resilience is a skill developed through guided experience and reflection.
The WSREM operates through structured, sequential interventions across the student lifecycle. As shown in
Figure 1, it unfolds in three academic stages that progressively strengthen career readiness and emotional
resilience. In Year One, structured advising sessions are embedded in foundational courses to link academic
study with future employment, reinforcing students’ sense of purpose and motivation (Bandura, 1997; Jackson,
2020). In Year Two, peer storytelling is introduced as a reflective and communal practice. Students share
challenges in a safe environment, promoting emotional preparedness, adaptive coping, and a supportive
community (Hodges & Eames, 2021; Bilgin, 2024). In the final year before placement, targeted pre-
professional preparation begins. Students engage in experiential learning to build workplace competence,
professional identity, and confidence in real employment settings (Zegwaard & Rowe, 2019; Jackson & Coll,
2021). Table 3 summarises all framework activities.
Figure 1: The WBL Scaffolded Resilience Management (WSREM) Framework.
Table 3 : Staged Implementation of the WSREM Framework for Developing Psychological and Professional
Readiness
Implementation Years
Key Activities:
Stage 1 (Year 1):
Foundation and
Expectation Setting
1. Discussions on workplace realities, highlighting that challenges, strict
supervisors, and critical feedback are normal.
2. Workshops on professional communication, including email etiquette and
effective questioning.
3. Linking coursework to real job functions to build engagement.
Stage 2 (Year 2):
Vicarious Learning and
Resilience Building
1. Semesterly Real-Talk sessions where senior students share both successes
and difficulties in WBL, including handling criticism and team issues.
2. Case studies of anonymised WBL challenges from past cohorts for group
reflection and response planning.
Stage 3 (Year 3 Pre-
Placement): Final
Preparation and
Commitment
1. Workshops on conflict resolution, feedback handling, and workplace stress.
2. Final briefing on WBL structure with students formally committing to learning
plans and professional expectations.
Note. WSREM = Work-Based Learning Scaffolded Resilience Management. The table presents a progressive,
three-stage intervention designed to build students’ professional identity and psychological readiness before
WBL placement
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RESULTS AND DISCUSSION
The Work-Based Learning (WBL) programme spans 3.5 years. Students spend the first 2.5 years on campus
and the final year (Semesters 6 and 7) in industry placements. Preparation for placement begins six months
earlier, during which academic staff liaise with industry partners to update company databases. For a cohort of
21 students, about 10 companies are typically engaged. Companies are briefed on the value of a full-year
placement, which supports meaningful projects and potential recruitment. After agreements are set, students
select placements and begin supervised projects. A recurring challenge is the sudden shift to workplace
culture, which often causes adaptation difficulties.
Findings from Cohorts 1 and 2 (Table 2) highlight a minor disconnect between academic expectations and
industrial realities. Students enter the workforce with theory-based mindsets and expect tasks to match their
academic learning. In practice, companies prioritise productivity, and students are often rotated across
departments or assigned training unrelated to coursework. This mismatch can lead to frustration and
perceptions of irrelevance. To address this, the WSREM framework adopts a holistic approach focused on
psychological and professional readiness, not logistics alone. It assumes readiness must be developed
progressively through scaffolded interventions that strengthen resilience, adaptability, and professional identity
(Jackson, 2020). Table 4 summarises its implementation and reflection components.
Table 4: Implementation and Reflective Activities Supporting Psychological and Professional Readiness in the
WSREM Framework
WSREM Stage
Implementation Focus
Delivery Personnel
Year 1: Semester 1
Students are encouraged to choose a university lifestyle that suits
them and to participate in co-curricular activities they enjoy.
Lecturers, Senior
Students
Year 2: Semesters
24
Consistent reminders are given about the purpose of entering
universityto prepare for employment. Students are trained
according to allocated time and advised not to be solely grade-
oriented but to focus on skill and attitude development.
Lecturers,
Technicians
Year 3: Semester 5
Discussions are held on the roles and responsibilities of Human
Resources (HR), helping students understand workplace
operations and the importance of accountability for smoother
adaptation to industrial environments.
Lecturers
Note. WSREM = Work-Based Learning Scaffolded Resilience Management. The table outlines staged
interventions designed to progressively build psychological readiness and professional maturity before
industrial placement.
Table 5 presents data from three academic cohorts, with the WSREM framework introduced in Cohort 3.
Comparative analysis of placement change requests shows clear evidence of WSREM’s effectiveness in
improving adaptability and placement continuity. Cohorts 1 (n = 21) and 2 (n = 23) did not implement
WSREM, while Cohort 3 (n = 28) received full pre-placement preparation. In Cohorts 1 and 2, placement
change requests during the second and third months reached 42% and 30%. After WSREM implementation,
the rate dropped sharply to 7%, showing greater commitment and adaptability among students who underwent
scaffolded preparation. These students managed workplace challenges more effectively and remained in their
placements longer. The top self-reported issue was “unrelated tasks,” recorded at 28% and 13% in Cohorts 1
and 2, but reduced to 10% in Cohort 3. Safety concerns also declined from 14% to 3%, while conflicts with
staff stayed low at 4%, 3%, and 3%.
Tripartite reviews involving advisors, students, and industry supervisors revealed that early cohorts struggled
with accepting feedback (23% and 8%), but this dropped to 3% in Cohort 3. Misunderstandings about task
scope also decreased from 19% and 8% to 3%, indicating stronger alignment between academic and industry
expectations. Personal issues such as transportation difficulties remained minor but fell from 9% to 3%.
Although some external factors cannot be fully controlled, the overall decline suggests improved emotional
readiness and problem-solving skills fostered through WSREM’s holistic preparation.
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Table 5: Comparative Data Across Three Academic Cohorts with WSREM Framework Introduced in Cohort
Three
Metric
Cohort 1
(n = 21)
Cohort 2
(n = 23)
Cohort 3 (n = 28) (after
WSREM implementation)
Total change requests (Months 23)
9 (42%)
7 (30%)
2 (7%)
Stated reasons by students
Safety issues (frequent accidents)
3 (14%)
2 (8%)
1 (3%)
Unrelated tasks
6 (28%)
3 (13%)
3 (10%)
Conflict with industry staff
1 (4%)
1 (3%)
1 (3%)
Actual root causes after tripartite investigation
Difficulty accepting critical feedback
5 (23%)
2 (8%)
1 (3%)
Misunderstanding of task scope
4 (19%)
2 (8%)
1 (3%)
Personal issues (e.g., transport)
2 (9%)
1 (4%)
1 (3%)
Note. Data compare placement change requests and their underlying causes across three cohorts. Cohort 3
shows significant reductions following implementation of the WSREM framework.
The WSREM framework serves as a proactive strategy to manage student expectations. Studies show that
dissatisfaction in Work-Based Learning (WBL) often arises from a mismatch between what students expect
and workplace realities (Collins & Tangney, 2020; Costley, 2022). By introducing these realities as early as
Semester One, WSREM helps students build psychological resilience and reduce “reality shock.” Students
learn that success at university goes beyond academic results as the curriculum is framed as early industry
preparation where communication, adaptability, and professionalism matter as much as technical skills.
Semesters Two to Four act as a bridge between theory and industrial practice. Students engage in practical and
project-based learning, especially in machining and hardware areas. They are reminded that real industrial
environments differ from university settings. Instead of aiming for perfection, they focus on readiness,
endurance, and adaptability to unfamiliar contexts (Hodges & Eames 2021; Suyitno et. al, 2025). Students are
also encouraged to avoid comfort zones, take consistent action, and understand that learning continues beyond
the university into the workplace.
In Semester Five, WSREM uses senior student storytelling, seeing peers handle real challenges strengthens
juniorsconfidence in managing similar situations. These stories provide practical lessons and reinforce the
idea that early challenges lead to later competence and stability (Billett, 2021). In Manufacturing Engineering,
WSREM also includes exposure to human resource principles focused on employee roles, workplace ethics,
and HR functions. Students learn that preparing for WBL involves more than technical skills; it requires
professional maturity and awareness of social and economic workplace realities (Rohanai, 2024; Yusoff et. al
2024). The framework thus helps students think and act like professionals even before entering WBL in
Semesters Six and Seven.
Overall, WSREM strengthens two key qualities, which are professional identity and resilience. In today’s
uncertain labour market, employers value individuals who can adapt and perform under pressure. These are
now core competencies, not optional soft skills. By introducing and reinforcing them from the first semester
onward, WSREM creates a clear developmental path that helps students progressively build resilience. When
implemented consistently, especially in practical classes, WSREM shifts students’ perspectives from routine
participation to meaningful, reflective preparation for WBL grounded in real experience.
A key policy implication of this study lies in the scalability of the WSREM framework across institutions
within the Malaysian Technical University Network (MTUN) and beyond. WSREM provides a structured
model that integrates psychological readiness, professional identity formation, and resilience training into
existing WBL programmes without requiring major curricular restructuring. This alignment makes it suitable
for adoption across diverse technical disciplines. For MTUN institutions, policy adaptation could focus on
embedding WSREM principles into early-semester modules and strengthening collaboration between
universities and industry partners through coordinated mentoring systems. At a national level, WSREM could
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
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inform guidelines for WBL quality assurance, ensuring that student preparation addresses not only technical
competency but also emotional and professional resilience. Future implementation research should examine
how institutional culture, resource availability, and stakeholder engagement influence the success and
sustainability of WSREM across different educational contexts.
CONCLUSSION
1. The Work-Based Learning Scaffolded Resilience Management (WSREM) framework advances Work-
Based Learning (WBL) by shifting attention from placement logistics to psychological and professional
readiness. This study shows that effective workplace preparation should begin early and progress
through structured stages that build resilience, adaptability, and professional identity.
2. Analysis of three student cohorts in the Industrial Machining Technology programme at Universiti
Teknikal Malaysia Melaka (UTeM) reveals a clear decline in placement-related issues after WSREM
implementation. Early exposure to workplace realities, peer storytelling, and reflective engagement
improved students’ ability to manage industrial challenges and strengthened motivation, confidence,
and professional mindset.
3. WSREM complements existing WBL systems by preparing students to engage more meaningfully. It
transforms WBL from a reactive problem-solving model into a proactive approach focused on identity
formation and resilience building. The framework offers a scalable, research-based foundation for
enhancing student well-being, placement continuity, and long-term employability. Future research
should explore its adaptability across disciplines and institutions.
ACKNOWLEDGEMENTS
We gratefully acknowledge Universiti Teknikal Malaysia Melaka for supporting this research through Grant
FRGS/1/2024/FTKIP/F00569.
Author Contributions
Hadzley Abu Bakar: Conceptualization, Data Collection, Hadzley Abu Bakar: Supervision, Writing Original
Draft, Mohd Basri Ali: Project Administration, Siti Rahmah Shamsuri, Umi Hayati Ahmad: Validation, Nor
Ana Rosli: Visualization, Shaiful Anwar Ismail: Technical Support, Safarudin Gazali Herawan: Critical
Review, Resources
Open Data
All data generated or supported for this study are fully included in this article.
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