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2Criterion 2200 marks

Program Curriculum and Teaching Learning Process

Full text in the SAR, from page 70 ↗
← 1. Vision, Mission and Program Educational Objectives3. Course Outcomes and Program Outcomes →

Criterion 2 carries 200 marks — the joint-largest in the SAR — and splits sharply in two. Sub-criterion 2.1 (40 marks) is about the curriculum the department is handed: since GP Palanpur is affiliated to Gujarat Technological University, the department does not write its own syllabus, so what it must demonstrate instead is that it has measured how well GTU's curriculum delivers the POs and PSOs, found the gaps honestly, and done something about them.

Sub-criterion 2.2 (160 marks) is about everything the department does control — how it plans and delivers teaching, sets internal question papers, runs laboratories, supervises projects, connects to industry, and provides access to learning resources.

The through-line between the two halves is the curricular gap analysis. Four Program Outcomes fall below the 2.00 threshold in the Program Articulation Matrix, and the department's answer to each of them is the expert lectures, industrial visits, workshops and projects documented in the rest of the criterion.

Sub-criteria and marks distribution

The official breakdown for Criterion 2, totalling 200 marks.

No.Sub-criterionMarks
2.1Program Curriculum40
2.1.1State the process used to identify extent of compliance of the curriculum for attaining the Program Outcomes (POs) and Program Specific Outcomes (PSOs) as mentioned in Annexure I. Also mention the identified curricula gaps, if any25
AProcess used to identify extent of compliance of curriculum for attaining POs & PSOs15
BList the curricular gaps for the attainment of POs & PSOs10
2.1.2Contents beyond the Syllabus15
ASteps taken to get identified gaps included in the curriculum (eg. letters to Board)2
BDelivery details of content beyond syllabus10
CMapping of content beyond syllabus with the POs & PSOs3
2.2Teaching Learning Process160
2.2.1Describe Processes followed to ensure/improve quality of Teaching & Learning based on following points25
AAdherence to Academic Calendar3
BUse of various instructional planning and delivery methods3
CMethodologies to support weak students and encourage bright students4
DQuality of classroom teaching3
EConduct of experiments3
FContinuous Assessment in the laboratory3
GStudent feedback of teaching learning process and action taken6
2.2.2Initiatives to improve the quality of semester tests and assignments15
AProcess for Internal semester question paper setting and evaluation and effective process implementation5
BQuestion paper setting taking into account outcomes/learning levels5
CCOs coverage in class test / mid-term tests and assignments5
2.2.3Quality of Experiments15
AExperimental methodologies5
BInnovative experiments including industry attached practices, virtual labs5
CRelevance to outcomes5
2.2.4Quality of Students Projects and Report Writing35
AIdentification of projects and allocation methodology3
BTypes and relevance of the projects and their contribution towards attainment of POs and PSOs5
CProcess for monitoring and evaluation5
DProcess to assess individual and team performance5
EQuality of deliverable, working prototypes12
FPapers published /Awards/ Recognition received by projects at State/ National level5
2.2.5Industry interaction and Community Services30
AIndustry supported Labs2
BDelivery of appropriate Course work by Industry experts5
CIndustrial visits/tours for students3
DIndustrial training/ internship (Marks to be given proportionately i.e. 100% student attended = 05 Marks; 90% students attended = 04 Marks and so on...)5
EPost training/ internship Assessment10
FContribution to Community related projects/activities5
2.2.6Information Access Facilities and Student Centric Learning Initiatives15
AAvailability of facilities & Effective Utilization; specify the facilities, materials and scope for self-learning, Webinars, NPTEL Podcast, MOOCs etc.10
BStudent Centric Learning Initiatives & Effective Implementation5
2.2.7New Initiatives for embedding Professional Skills15
AEmployability skill enhancement Initiatives and effective implementation8
BPersonality development related Initiatives & effective implementation7
2.2.8Co-curricular & Extra-Curricular Activities10
Total — Criterion 2200
2.140 marksSAR p.72 ↗

Program Curriculum

The Diploma in EC curriculum comes from GTU, which established a Curriculum Development Cell in 2012 and revised the syllabus with NITTTR Bhopal and faculty from GTU-affiliated polytechnics across Gujarat. The current version is the Competency-focused Outcome-based Green Curriculum (COGC-2021), introduced in 2021-22 when the previous curriculum completed its ten-year cycle.

The programme runs to 120 credits across six semesters, distributed as shown below. Program Core courses account for 75 of those credits across 23 courses — 62.5% of the credit weight — with Program Electives adding a further 16.

Credit distribution by course component (COGC-2021)
ComponentCreditsCourses% of courses% of credits
HS — Humanities & Social Science337.50%2.50%
BS — Basic Science1237.50%10.00%
GS — General Science312.50%2.50%
ES — Engineering Science10410.00%8.33%
PC — Program Core752357.50%62.50%
PEC — Program Elective16512.50%13.33%
Internship112.50%0.83%

SAR Table 2.1.3. Semester credits run 22, 19, 20, 22, 23 and 14 across the six semesters, totalling 120.

2.1.125 marksSAR p.72 ↗

State the process used to identify extent of compliance of the curriculum for attaining the Program Outcomes (POs) and Program Specific Outcomes (PSOs) as mentioned in Annexure I. Also mention the identified curricula gaps, if any

The sub-criterion carries 25 marks and asks two distinct questions: by what process does the department measure whether the curriculum can deliver the POs and PSOs, and what did that process find.

A

Process used to identify extent of compliance of curriculum for attaining POs & PSOs

15 marksp.72 ↗

Compliance is measured through the Program Articulation Matrix. Every one of the 40 courses in the programme has its Course Outcomes mapped to each PO and PSO on a 1–3 scale (low, moderate, high), and the column average across all 40 courses gives the extent to which the curriculum as a whole addresses each outcome.

The department then applies a fixed, published test: an average of 2.00 or above means the outcome is adequately addressed by the curriculum; anything below 2.00 is flagged as a curricular gap. 2.00 is chosen because on a 1–3 scale it represents satisfactory accomplishment, and using a stated numeric threshold removes subjectivity from the judgement.

Applying that test to the matrix flags four outcomes. The department does not stop at flagging them — for each it records a root cause and a corrective action, and those actions are what appear as the beyond-syllabus activity documented in 2.1.2.

Program Articulation Matrix — average mapping and gap identification
OutcomeAverage mappingGap (threshold < 2.00)
PO1 — Basic & discipline specific knowledge2.67No
PO2 — Problem analysis1.89Yes
PO3 — Design / development of solutions1.92Yes
PO4 — Engineering tools, experimentation and testing2.05No
PO5 — Engineering practices for society, environment and sustainability1.73Yes
PO6 — Project management1.75Yes
PO7 — Life-long learning2.01No
PSO1 — Proficiency in installation and problem solving of EC equipment2.44No
PSO2 — Proficiency in specialised software packages, coding and PCB design2.07No

SAR Tables 2.1.4 and 2.1.5, averaged over all 40 courses of the programme. This 2.00 threshold measures the reach of the curriculum in the articulation matrix. It is a different scale from the attainment targets in Criterion 7, which are set per outcome as a percentage of these same averages.

B

List the curricular gaps for the attainment of POs & PSOs

10 marksp.84 ↗

Four gaps are listed, each with the reason the department believes produced it. PO2 (problem analysis, 1.89) and PO3 (design and development, 1.92) are attributed to the same underlying cause: diploma-level EC courses emphasise conceptual understanding and awareness rather than analytical problem-solving, and contain few design-oriented or open-ended tasks.

PO5 (society, environment and sustainability, 1.73) is the widest gap, and is attributed to limited coverage of societal, environmental and ethical considerations in the major courses. PO6 (project management, 1.75) is attributed to the fact that while core technical subjects carry micro-projects, most do not carry a project-management component — so leadership, communication and resource planning are under-exercised.

The corrective actions proposed against each are specific rather than generic: project competitions and hackathons for PO2 and PO3, projects deliberately framed around societal and environmental themes for PO5, and group assignments with defined roles, timelines and deliverables for PO6 — alongside industrial visits, expert lectures and workshops across all four.

Evidence in the SAR
  • Program Articulation Matrix covering all 40 courses of the programme, with column averages (SAR Table 2.1.4).
  • Written gap analysis giving the appropriateness of each identified gap (SAR Table 2.1.6).
2.1.215 marksSAR p.85 ↗

Contents beyond the Syllabus

Having identified four gaps in a curriculum it does not control, the department has two routes open to it: ask GTU to change the syllabus, and deliver the missing content itself. It documents both.

A

Steps taken to get identified gaps included in the curriculum (eg. letters to Board)

2 marksp.86 ↗

Two written communications to the university on the identified curriculum gaps are reproduced in the SAR. This is the formal route — the department cannot amend a GTU syllabus, so the evidence expected here is the record of having asked.

Evidence in the SAR
  • Two letters to the university setting out the identified curriculum gaps (SAR figures under 2.1.2 A).
B

Delivery details of content beyond syllabus

10 marksp.88 ↗

Twenty-two beyond-syllabus activities are recorded from 2019-20 to 2025-26 — expert lectures, industrial visits, workshops, webinars and a coding competition. The programme is continuous rather than episodic, with activity in every year including the two COVID years, which were covered by webinars.

The content is chosen against the identified gaps and against emerging technology: CCTV installation, entrepreneurship, digital communication with MATLAB, cyber security, consumer electronics, IoT (twice, including ESP-32, NodeMCU and Raspberry Pi), drone technologies, semiconductor manufacturing technology and emerging mobility trends. Visits run to PCB Power and MCBS in Gandhinagar, Banas Dairy, the Palanpur railway station, the local community radio station (four times across the period) and the NETRAM command and control centre.

Beyond-syllabus delivery, most recent years
YearActivityTopic
2023-24Industrial visitPCB Power Pvt. Ltd., Gandhinagar
2023-24Industrial visitMCBS Pvt. Ltd., Gandhinagar
2024-25Industrial visitsPalanpur railway station; Banas Dairy; community radio station
2024-25Expert lecture — Dr. V. K. ThakarInternet of Things
2024-25Expert lecture — Mr. Krishna PanchalCareer guidance for EC engineers
2024-25Workshop — Mr. Yuvrajsinh RajputDrone technologies
2025-26Industrial visitsNETRAM command and control centre, Palanpur; community radio station
2025-26Expert lecture — Mr. Rishabh PrajapatiIoT applications with ESP-32, NodeMCU, Raspberry Pi
2025-26CompetitionScratch coding competition
2025-26Expert lecture — Dr. Vijay K. PatelSemiconductor manufacturing technology
2025-26Expert lecture — Mr. Jaimin RamiEmerging mobility trends for engineers

Extract from SAR Table 2.1.7, which lists 22 activities from 2019-20 onward.

C

Mapping of content beyond syllabus with the POs & PSOs

3 marksp.89 ↗

The mapping closes the loop, and it is the most direct evidence in Criterion 2 that the gap analysis actually drives departmental activity: the beyond-syllabus events are counted against exactly the four outcomes the Program Articulation Matrix flagged, and against no others.

Beyond-syllabus events mapped to the gap outcomes
OutcomeDescriptionEvents addressing it
PO2Problem analysis13
PO3Design / development of solutions12
PO5Engineering practices for society, environment and sustainability12
PO6Project management10

SAR Table 2.1.8 (PO–PSO coverage analytics report).

2.2160 marksSAR p.97 ↗

Teaching Learning Process

The teaching–learning half of Criterion 2 carries 160 of the 200 marks and runs across eight sub-criteria, from academic-calendar discipline through to co-curricular activity.

2.2.125 marksSAR p.97 ↗

Describe Processes followed to ensure/improve quality of Teaching & Learning based on following points

Seven lettered sub-points, 25 marks, covering the everyday machinery of teaching: the calendar, delivery methods, differentiated support, classroom quality, laboratory conduct, continuous lab assessment, and the student feedback loop that carries the most marks of the seven.

A

Adherence to Academic Calendar

3 marksp.97 ↗

The department works to a three-tier calendar. GTU publishes semester start and end dates, tentative examination schedules, internship periods and the holiday list before each term. The institute derives its own calendar from that, adding internal examinations, industrial visits and expert lectures. The department then produces a third calendar aligned to both.

The departmental layer is where the SAR's specific claims sit: it carries class-test schedules, remedial examination periods and submission timelines, industrial and site visits, seminars and expert lectures, parent–teacher meetings and weak-student support sessions. Publishing all of these together at the start of term is what prevents clashes between activities and gives every student an equal chance to take part in the co-curricular programme.

Evidence in the SAR
  • GTU, institute and EC department academic calendars, published on the department notice board and electronically each term.
B

Use of various instructional planning and delivery methods

3 marksp.101 ↗

Seven delivery methods are documented, and the SAR is candid that the traditional board-and-chalk method remains the most widely used — justified on the grounds of real-time interaction, immediate doubt-solving and continuous visibility of whether students are following.

Around it sit multimedia delivery (presentations, video, animation, simulation software), demonstration with equipment and models, student seminars and presentations, the flipped classroom in a few classes, and wall charts and posters in classrooms and labs.

The online-platform history is recorded honestly as two phases. Microsoft Teams was the primary platform during COVID-19, used for live classes, quizzes, unit tests and viva examinations, subject-wise channels, online parent–teacher meetings and lecture recordings. Post-pandemic the department moved to Google Classroom, which continues in use for study materials, assignments, question banks, lab manuals and written submissions — so the digital layer is presented as a permanent addition to blended learning rather than an emergency measure that lapsed.

C

Methodologies to support weak students and encourage bright students

4 marksp.107 ↗

Both ends of the ability range are handled by a written policy with numeric identification criteria, which is what makes it auditable. Slow learners are those scoring below 40% in Progressive Assessment-1, together with difficulty grasping basic topics and low participation. Fast learners are those scoring 60% or above, with quick grasp, problem-solving ability and active participation.

Slow learners receive remedial classes for concept revision and doubt-solving, personalised mentoring by subject faculty, assignments and question banks built around university question patterns, and parent–teacher interaction to secure parental support and track attendance. Fast learners are pointed at NPTEL and curated video material beyond the syllabus, given certificates and appreciation as toppers, and encouraged toward self-directed learning.

The evidence of effect is tracked rather than asserted: the department records Progressive Assessment results for identified students across semesters, and reports that students identified as weak in one semester progressed to average or higher standing in subsequent examinations.

D

Quality of classroom teaching

3 marksp.110 ↗

Classroom quality is argued from the course file. Subject allotment happens well before the semester starts so that lesson plans, laboratory plans and teaching material can be prepared in advance, and each subject coordinator maintains a course file containing the syllabus, teaching scheme, course outcomes, lesson and lab plans, attendance, assignments, tutorials, the CO–PO–PSO mapping, question papers, CO-wise marksheets, the course exit survey, lecture notes and the lab manual with rubrics.

Monitoring is direct: the HOD conducts surprise classroom and laboratory visits to verify lesson-plan coverage, resource use and teaching effectiveness, and student feedback is collected periodically and discussed with the faculty member concerned.

Faculty capability is presented as part of classroom quality rather than separately. Two faculty members have completed PhDs and one is currently pursuing one; one has completed a master's degree; one has completed the AICTE QIP PG certificate in deep learning; and one is working through a BS in data science. Training participation across the eight faculty ranges from 2 to 11 programmes each.

Industry interaction activity by year
Activity2021-222022-232023-242024-252025-26
Industrial visits43343
Workshops / expert lectures24344
MoUs signed00111

SAR Table 2.2.1

E

Conduct of experiments

3 marksp.118 ↗

Experiments are planned from the GTU-prescribed list by the subject coordinator, who produces the experiment list, weekly laboratory plan, lab manual and assessment rubrics as part of the course file, with each experiment mapped to a Course Outcome.

From 2021-22 the Directorate of Technical Education introduced common laboratory manuals for each subject across all Gujarat polytechnics, which the department cites as the source of uniformity in experiment delivery and evaluation. Students work in small groups after the faculty member has explained and demonstrated the experiment.

The SAR is explicit about what happens when equipment is unavailable rather than passing over it: the department falls back on simulation software, mobile applications, the Government of India virtual laboratories, and video material — and students are encouraged to build circuits on breadboard where trainer kits do not exist, and to design and fabricate on PCB in Electronics Workshop and project work.

F

Continuous Assessment in the laboratory

3 marksp.120 ↗

Every laboratory course runs continuous assessment through the semester, scored by the subject faculty against parameters set in advance and varied to suit the nature of the laboratory — software-based and hardware-based labs are not assessed identically. Participation, performance, sincerity and timely submission all count.

End-semester practical examinations then differ by year of study: for semesters 5 and 6 they are conducted by external examiners appointed by GTU, while for semesters 1 to 4 departmental faculty conduct them under institute and university norms.

Evidence in the SAR
  • Sample practical rubrics for VLSI (course 4361102) reproduced in the SAR; rubrics for other courses held in the respective faculty course files.
G

Student feedback of teaching learning process and action taken

6 marksp.121 ↗

This sub-point carries 6 marks, the most in 2.2.1, and the department separates feedback into direct and indirect channels. Direct feedback is collected once each semester from all students, offline or online, on a five-point scale, covering content knowledge, delivery, communication, punctuality and regularity, interaction, response to queries, prerequisite coverage, use of real-life examples and learning support. Confidentiality is maintained and only consolidated results are shared.

Indirect feedback comes from the HOD's periodic interactions with students about academics, laboratories and support services, and from the Course Exit Survey run for each course and the Program Exit Survey run for passing-out students — the two instruments that also feed the indirect attainment calculation in Criterion 3.

The action-taken mechanism is what closes the loop. The HOD discusses consolidated reports with the faculty member concerned and may direct FDP or workshop participation for pedagogy, adjustments to lesson planning and pace, additional tutorials, remedial sessions or lab demonstrations, or improvements to notes, presentations, manuals and question banks. Faculty with consistently high or improved feedback receive appreciation certificates. Effect is checked in the following cycle's scores rather than assumed.

2.2.215 marksSAR p.127 ↗

Initiatives to improve the quality of semester tests and assignments

Fifteen marks on the quality of internal assessment — how papers are set, whether they address the right learning levels, and whether they cover the Course Outcomes they are supposed to.

A

Process for Internal semester question paper setting and evaluation and effective process implementation

5 marksp.128 ↗

The HOD appoints a subject coordinator for each course who sets the class-test paper and evaluates it. Syllabus coverage for the test is fixed in advance and communicated to students, along with the paper format, evaluation scheme, seating arrangement and schedule, published on the notice board and digitally.

Papers are mapped to Course Outcomes and framed across Bloom's Taxonomy levels, on guidance from the departmental IQAC committee and the HOD, then submitted to the department GTU coordinator for conduct. After evaluation, results are declared to a scheduled timeline and analysed by the subject in-charge specifically to identify slow learners, who are then routed into the counselling and remedial process described in 2.2.1 C.

B

Question paper setting taking into account outcomes/learning levels

5 marksp.129 ↗

Each question is mapped to a Course Outcome and to a Revised Bloom's Taxonomy level, so that a paper covers the remember, understand and apply domains rather than clustering at recall. The CO-wise assessment review then checks three things for every paper: which test it is (PA-1 or PA-2), which taxonomy level each question addresses, and the weightage each CO receives against the course assessment scheme.

C

COs coverage in class test / mid-term tests and assignments

5 marksp.129 ↗

CO coverage is planned at the start of the semester rather than reconciled afterwards: the assessment plan forms part of the lesson plan and sets out the CO-wise mapping for each evaluation method.

A standard Progressive Assessment format is used across all subjects, carrying the CO mapping for each question, the cognitive level (R / U / A), the marks distribution, and a layout of compulsory and optional sections designed so that the full CO range is covered whichever options a student takes.

Evidence in the SAR
  • Sample PA-1 and PA-2 test papers showing per-question CO and cognitive-level annotation.
2.2.315 marksSAR p.132 ↗

Quality of Experiments

Fifteen marks on laboratory quality across nine laboratories, each with a named lab in-charge drawn from the eight-member faculty.

Departmental laboratories
RoomLaboratoryLab in-charge
B002Computer Lab-1Ms. M. K. Pedhadiya
B008Computer Lab-2Dr. L. K. Patel
B009Computer Lab-3Mr. M. J. Dabgar
B014Computer Lab-4Mr. S. P. Joshiara
B010Electronics Lab-1Mr. N. J. Chauhan
B013Electronics Lab-2Mr. R. C. Parmar
B106Electronics Lab-3Mr. N. J. Chauhan
B101Communication Lab-1Dr. R. N. Patel
B105Communication Lab-2Dr. R. N. Patel

SAR Table 2.2.3

A

Experimental methodologies

5 marksp.133 ↗

All courses are allotted across the nine laboratories, with experiments designed to the GTU-prescribed list and batch sizes set to DTE guidelines. Groups of four to five students perform each practical under faculty and support-staff supervision, after the procedure, underlying theory and intended learning outcome have been explained.

Each laboratory has a designated in-charge, and the lab assistant maintains an equipment utilisation register countersigned by faculty — the record that makes utilisation claims checkable. Every experiment title in the manual is mapped to a Course Outcome, and sample manuals with readings and observations are retained for verification.

B

Innovative experiments including industry attached practices, virtual labs

5 marksp.135 ↗

Beyond the prescribed experiments, students are set micro-projects aligned to current industry requirements. The innovative practices recorded are concrete: Quartus with a Spartan-6 kit for hardware implementation in VLSI, virtual-lab test-bench simulation in VLSI and in Digital Electronics, Machine Learning for Kids as an integrated digital environment in Renewable Energy and Emerging Trends, and eXtreme Burner as the AVR development interface in Embedded Systems.

Innovative experiments and tools
SemesterSubjectToolUse
6VLSIQuartus (free version), Spartan-6 tool kitHardware implementation of various projects
6VLSIVirtual LabTest bench simulations
6Renewable Energy & Emerging TrendsMachine Learning for KidsIntegrated digital environment
5Embedded SystemseXtreme BurnerDevelopment interface for AVR
2Digital ElectronicsVirtual LabSimulation

SAR Table 2.2.4

C

Relevance to outcomes

5 marksp.135 ↗

Every experiment is mapped to a Course Outcome, and the department states plainly that the experiment list covers the maximum number of COs it can — with the remaining COs assessed through CO-wise examinations and other activities the course coordinator specifies. Performance-based courses are assessed on rubrics.

2.2.435 marksSAR p.137 ↗

Quality of Students Projects and Report Writing

Thirty-five marks, the largest single sub-criterion in Criterion 2, covering final-year project work end to end.

The credit structure changed materially with COGC-2021 and the SAR records both regimes. Under the 2012 curriculum, Project-1 (5th semester) carried 4 credits and 100 marks and Project-2 (6th semester) 6 credits and 300 marks — 10 credits in total. Under the 2021 curriculum, mandatory summer internships were introduced alongside project work and the final-year project allocation fell to 2 credits: E&C Project-1 at 1 credit and 100 marks, E&C Project-2 at 1 credit and 50 marks. COGC-2021 also added a 10-mark micro/mini project (14–16 hours per semester) into mid-semester internal evaluation.

A

Identification of projects and allocation methodology

3 marksp.138 ↗

Project identification begins before the fifth semester does. After the fourth semester students undertake a "Shodh-Yatra" — a problem-identification journey through industry and relevant organisations to find a real problem worth solving — and submit a problem definition to the departmental project guide within the GTU timeline, usually inside the first three weeks of the fifth semester.

Teams are of three to four students, each assigned a faculty guide who reviews feasibility and relevance, evaluates progress weekly and maintains a project progress record. An industry mentor may also be involved, particularly at final presentation and evaluation.

The selection guidelines are explicit about what counts: the project must address a real-world problem or innovative application; ideas may come from industry visits, faculty suggestions, student research or community needs including NGOs, MSMEs and smart-city problems; projects should integrate both hardware and software; and projects with SSIP or start-up potential are actively encouraged.

B

Types and relevance of the projects and their contribution towards attainment of POs and PSOs

5 marksp.140 ↗

Every project is classified as application, product, research or review, and selected only after environmental, safety, ethical, cost and standards aspects have been weighed — then mapped to the POs and PSOs it contributes to. Most students opt for User Defined Projects, with industry mentors advising on selected titles.

Project lists for 2023-24, 2024-25 and 2025-26 are reproduced in full in the SAR.

C

Process for monitoring and evaluation

5 marksp.141 ↗

Monitoring is weekly and documented. Each group meets its guide once a week, and the guide records work done, issues faced, corrective actions suggested and alignment with POs and PSOs in a weekly progress report. Assessment covers technical progress, design quality, safety, ethical practice, cost management and compliance with standards.

A mid-term review checks status at roughly 50% completion so corrective measures can still be taken, and the final review — internal and external — covers prototype demonstration, viva-voce and documentation quality. All weekly reports, rubric sheets, mentor comments and evaluation summaries are retained.

D

Process to assess individual and team performance

5 marksp.144 ↗

Individual and team performance are separated deliberately, because a group project can otherwise hide an individual contribution. Each student's contribution is tracked through weekly progress reports and guide observations, and tested through peer feedback and individual viva sessions covering understanding, skills and communication. Team performance — collaboration, overall progress, quality of outcome — is assessed separately by faculty guides and external examiners, with industry mentor input on coordination where relevant.

Structured rubrics cover technical content, teamwork, innovation, ethics and environmental aspects. The competencies the process is designed to develop are stated: co-creation and interpersonal ability, analysis, test and troubleshooting, programming, simulation and debugging, PCB fabrication, soldering and modelling, and documentation and presentation.

E

Quality of deliverable, working prototypes

12 marksp.148 ↗

Twelve marks rest on the prototypes themselves. Completed projects are evaluated for functionality, innovation and adherence to objectives, against quality parameters covering reliability, robustness, safety, ethics, cost-effectiveness and compliance with standards. Documentation — design specifications, test results, user manuals — is reviewed for completeness alongside the working artefact.

Final assessment involves both the faculty guide and an external examiner, who verify that the prototype actually works and that the student understands it, through demonstration and viva. Results are then mapped back to the POs and PSOs.

F

Papers published /Awards/ Recognition received by projects at State/ National level

5 marksp.149 ↗

External recognition comes through two routes. Under the Student Startup and Innovation Policy, three EC projects received institute-level SSIP funding to build proofs of concept: a Smart Attendance System (₹25,000) and a Smart Dustbin (₹16,792) in 2024-25, and a Smart Chair Positioning System (₹25,200) in 2025-26.

Separately, EC projects won cash prizes at the institute's New Palanpur for New India event in each of the last three years — two prizes at NPNI 2.0 in 2023-24, two at NPNI 3.0 in 2024-25, and one at NPNI 4.0 in 2025-26.

Project recognition — SSIP funding and NPNI prizes
YearProject / studentsRecognition
2024-25Smart Attendance System — Suthar Bharat VishanubhaiSSIP funding ₹25,000
2024-25Smart Dustbin — Prajapati Harshad SSSIP funding ₹16,792
2025-26Smart Chair Positioning System — Dave Falguni JSSIP funding ₹25,200
2023-24Suthar Bharat Vishanubhai; Prajapati Harshad SNPNI 2.0 — ₹1,500 and ₹1,000
2024-25Patel Akshar, Panchal Shubh, Suthar Bharat; Panchal Jitendra, Lokhandwala Taukir, Prajapati HarshadNPNI 3.0 — ₹1,500 and ₹1,000
2025-26Shrimali Hiten & Mali PareshNPNI 4.0 — ₹1,500

SAR Tables 2.2.10, 2.2.11 and 2.2.12.

2.2.530 marksSAR p.150 ↗

Industry interaction and Community Services

Thirty marks across six lettered sub-points covering the department's connection to industry and to the community around it.

A

Industry supported Labs

2 marksp.150 ↗

One industry-supported laboratory has been established — the Advanced Controller and Processor Laboratory, set up in collaboration with BeeRobokids Innovations Pvt Ltd.

B

Delivery of appropriate Course work by Industry experts

5 marksp.150 ↗

Coursework delivered by industry experts is recorded session by session, with the expert's name, designation, employer, date and the number of students who attended — so participation is countable rather than asserted.

The range spans TCS on programming, Google Bangalore on the future of electronics in industry, Bank of America on cyber security (94 students, the largest single audience), JMRC Ahmedabad on communication in industry and later on emerging mobility trends, SOFCON India on embedded systems, web development and AI-ML, Indrashil University on IoT, Ganpat University on semiconductor manufacturing, and a HAM Radio workshop run by GGP Ahmedabad.

Coursework delivered by industry experts, recent years
YearTopicExpertOrganisationStudents
2022-23Cyber SecurityMr. Sagar HajareBank of America94
2023-24Embedded SystemsMr. Vishal VadherSOFCON India Pvt Ltd74
2023-24Web development technologiesMr. Vishal VadherSOFCON India Pvt Ltd74
2024-25AI-ML: A new era of futureMr. Vishal VadherSOFCON India Pvt Ltd91
2024-25Internet of ThingsDr. V. K. ThakarIndrashil University81
2024-25HAM Radio workshopMr. N. B. NadodaGGP, Ahmedabad54
2025-26Cyber crime awarenessMr. Manish S. ChauhanGEC Modasa50
2025-26IoT applications with NodeMCU & Raspberry PiMr. Rishabh PrajapatiBee-Robokids Innovation Pvt Ltd21
2025-26Semiconductor manufacturing technologyDr. Vijay K. PatelGanpat University55
2025-26Emerging mobility trends for engineersMr. Jaimin RamiJMRC Ahmedabad53

Extract from SAR Table 2.2.5, which covers 2021-22 onward.

C

Industrial visits/tours for students

3 marksp.154 ↗

Industrial visits are logged with date, industry, semesters involved, participant count and accompanying faculty across all five assessment years. The pattern mixes local employers reachable for large groups — Bajarang Paper Products, the Palanpur community radio station, Samsung Care — with longer trips to specialist EC industry in Gandhinagar such as PCB Power, MCBS and Sahajanand Laser Tech.

Participation is substantial where the destination is local: 51 students visited Bajarang Paper Products in 2023-24 and 56 travelled to Gandhinagar for the PCB Power and MCBS visits the same year.

Student reflections are collected at the end of each visit, and the recorded benefits are specific — connecting theory to practice, exposure to industry standards and regulatory frameworks not covered in textbooks, direct help with the design, simulation and implementation stages of academic projects, and an understanding of workplace culture and professional conduct.

D

Industrial training/ internship (Marks to be given proportionately i.e. 100% student attended = 05 Marks; 90% students attended = 04 Marks and so on...)

5 marksp.157 ↗

Internships are mandatory under COGC-2021 — two weeks after the third semester and six weeks after the fifth. Students may take them across government agencies, skill development centres, the social sector, government social schemes and NGOs as well as industry.

Across the assessment period 45 of 47 regular students completed the mandatory internship, a participation rate of 95.74%. Four of the six semester cohorts recorded 100% participation; the two shortfalls were 2022-23 semester 3 (11 of 12, 91.67%) and 2023-24 semester 3 (8 of 9, 88.89%).

Internship participation, year-wise
YearSemesterStudentsCompleted
2022-2331211
2023-24398
2023-24566
2024-25366
2024-25588
2025-26566

SAR Table 2.2.7. Marks for this sub-point are awarded proportionately to participation.

E

Post training/ internship Assessment

10 marksp.158 ↗

Post-internship assessment carries 10 marks — twice the weight of the internship itself — and is conducted at the institute in consultation with industry, against a defined evaluation rubric measuring the knowledge and skills actually acquired during the placement.

Evidence in the SAR
  • Internship evaluation rubric reproduced in the SAR.
F

Contribution to Community related projects/activities

5 marksp.159 ↗

Fourteen community activities are recorded from 2022 onward, most run through the NSS. The scale varies widely and is reported as such: 276 students took part in the organic-farming outreach at Dhelana village, 187 in the Meri Matti Mera Desh lamp lighting, 175 in the Vasudha Vandan tree plantation, and 170 in the thalassemia, eye and dental check-up camp.

A week-long special camp at Jalra Karja village in January 2023 involved 50 students across teaching, yoga practice, a village survey, a horticulture seminar, an awareness rally, a bakery-based self-employment session, tulsi plant distribution, tree plantation and kitchen service at the primary school. Smaller activities include a cleanliness drive at Palanpur railway station, the Ambaji NSS Seva camp, and voter-awareness and Mission LiFE programmes. Faculty also carry out RTO learning-licence duties as a standing yearly activity.

2.2.615 marksSAR p.162 ↗

Information Access Facilities and Student Centric Learning Initiatives

Fifteen marks on information access and student-centric learning.

A

Availability of facilities & Effective Utilization; specify the facilities, materials and scope for self-learning, Webinars, NPTEL Podcast, MOOCs etc.

10 marksp.162 ↗

Access is provided at three levels. Institutionally: 24×7 internet, campus Wi-Fi, wired LAN in every laboratory, projectors in rooms 008, 009 and 011, National Digital Library of India access, and Microsoft Teams accounts with Office 365 supplied by the Government of Gujarat. Students also received subsidised tablets at ₹1,000 under the Namo e-Tablet scheme, available to first-year students from households under ₹1 lakh annual income.

For reading, the institute library holds over 102 EC-specific titles covering analog and digital electronics, communication systems, microprocessors, VLSI and embedded systems, with issue and return records maintained; the department maintains a second collection of roughly 102 books of its own as a department-level resource.

Digitally, the department runs a Google Drive repository organised by semester and subject holding lecture notes, lab manuals, previous question papers, assignments and reference material, reachable by QR code, plus Google Classroom for day-to-day material and submissions. Course material is also published openly on the department website's learning-resources page. Students are directed to NPTEL and SWAYAM, and GTU has since introduced MOOC credits into semesters 4 and 5 under the NEP-based syllabus.

B

Student Centric Learning Initiatives & Effective Implementation

5 marksp.169 ↗

Student-centric initiatives are listed with the mechanism each depends on: student presentations and seminars for communication and peer learning; workshops and expert sessions; industrial visits with reports retained for academic record; a departmental YouTube channel with faculty-created playlists on C programming and DC circuits shared through Google Classroom and WhatsApp; NDLI club registration; and the AICTE e-Kumbh e-book platform, which students access under their own credentials.

A two-week induction programme runs for first-year students under GTU guidelines, covering values, communication, arts, technical awareness and expert talks.

The KCG Finishing School supplies structured employability training in four modules. Three batches are recorded: 80 hours for 6 students in 2022-23, 80 hours for 5 students in 2023-24, and 40 hours for 7 students in 2025-26.

2.2.715 marksSAR p.174 ↗

New Initiatives for embedding Professional Skills

Fifteen marks on embedding professional skills, split between employability and personality development.

A

Employability skill enhancement Initiatives and effective implementation

8 marksp.174 ↗

Employability work runs through three channels: placement fairs, career guidance through mentors and the TPO cell, and industry exposure through visits and expert lectures.

Mega placement camps are organised with the Education Department and the Knowledge Consortium of Gujarat. EC participation is reported without rounding up: 5 students in 2022-23 at GP Palanpur, 5 in 2023-24 at DNP Arts Deesa, 7 in 2024-25 at GP Palanpur, and for the February 2026 fair at GEC Palanpur the SAR records plainly that no industry attended for EC students.

Alongside these run the Wadhwani Foundation skilling programme on communication, job readiness and entrepreneurship, HAM Radio and drone technology workshops, a career-guidance lecture specifically for EC engineers, and the KCG Finishing School soft-skills modules.

Placement fair participation
YearVenueEC students participating
2022-23 (10 Mar 2023)G. P. Palanpur5
2023-24 (11 Mar 2024)DNP Arts, Deesa5
2024-25 (25 Feb 2025)G. P. Palanpur7
2025-26 (24 Feb 2026)GEC PalanpurNo industry present for EC students

SAR Table 2.2.13

B

Personality development related Initiatives & effective implementation

7 marksp.179 ↗

Personality development runs largely through the Training and Placement cell — resume and LinkedIn profile creation, the annual KCG placement fair, and training in handling stress, leadership and interpersonal skills — supplemented by the Wadhwani Foundation skilling programme and expert lectures on interview soft skills, teamwork and leadership.

The claimed outcomes are stated as improvements in communication and self-confidence, ability to face interviews and interact with industry professionals, leadership and teamwork, and adaptability to changing industry demand.

2.2.810 marksSAR p.180 ↗

Co-curricular & Extra-Curricular Activities

Ten marks covering activity outside the curriculum. On the co-curricular side the department runs project exhibitions through the institute's New Palanpur for New India event, expert lectures and seminars, industrial visits, and hands-on workshops on HAM Radio and drone technologies. Its ISTE Student Chapter has organised four events across the assessment period: a Verilog HDL RTL design workshop (37 participants), a two-day entrepreneurship awareness drive with the Centre of Entrepreneurship Development (95 participants), a drone technologies lecture (36) and a Scratch coding competition (12).

On the extra-curricular side, students take part in the annual sports week, NSS social and cultural initiatives, International Yoga Day, an annual tree plantation drive, Independence and Republic Day programmes, the annual Garba, and voter-awareness and road-safety programmes.

Event counts are reported year by year and do vary: gymkhana events ran 20, 21, 10, 4 and 18 across 2021-22 to 2025-26, with NSS events 2, 2, 7, 5 and 0 over the same period.

Extra-curricular events by year
YearGymkhana eventsNSS events
2021-22202
2022-23212
2023-24107
2024-2545
2025-26180

SAR Table 2.2.16

This is a summary

Criterion 2 runs from page 70 of the SAR. Every figure above is taken from the report; where a figure is not stated in the SAR it is not given here.