Quick explanation
A good outcome statement is short, specific, observable, and easy to connect to assessment evidence.
Course Outcome
A clear statement of what a student should be able to do by the end of a course or a major learning block.
Program Outcome
A broader graduate attribute the student should achieve by graduation.
Bloom level
The intended cognitive depth of the CO: Remember, Understand, Apply, Analyze, Evaluate, or Create.
Mapping strength
The extent to which a CO contributes to a PO, based on what is actually taught and directly assessed.
Writing strong Course Outcomes
A Course Outcome should describe student performance, not teacher coverage or a syllabus topic.
Anatomy of a good CO
Use one dominant observable verb. Name the specific EEE task clearly. Add context where it matters. Add a performance expectation or evidence path when the course naturally supports one.
- What will the learner do?
- On what EEE knowledge, skill, or artifact?
- Using what method, tool, or context?
- How will acceptable performance be recognized?
Common mistakes
- using vague verbs such as know, understand, learn, or be familiar with
- writing a syllabus topic instead of a student performance
- putting too many verbs into one CO
- mapping a PO because the topic appeared in class rather than because students produced evidence
- claiming design, investigation, teamwork, ethics, sustainability, or communication without an assessed artifact
Weak versus improved EEE examples
| Area | Weak CO | Improved CO | Likely Bloom level |
|---|---|---|---|
| Circuits | Understand nodal analysis. | Calculate node voltages and branch currents in linear DC networks using nodal and mesh methods, and verify power balance in solved circuits. | Apply |
| Electronics | Know BJT amplifiers. | Analyze bias stability, midband gain, and small-signal behavior of single-stage BJT amplifiers from circuit parameters and measured characteristics. | Analyze |
| Electrical machines | Learn induction motor operation. | Predict torque-speed characteristics and efficiency trends of three-phase induction motors from equivalent-circuit parameters and test data. | Analyze |
| Power systems | Be familiar with load flow. | Compute bus voltages and line flows in balanced power networks using Newton–Raphson load-flow formulation, and interpret operating-limit violations. | Analyze |
| Communication systems | Understand digital modulation. | Compare BER–bandwidth tradeoffs of common digital modulation schemes under AWGN conditions using analytical expressions and simulation results. | Evaluate |
| Control systems | Know root locus. | Design a lead or lag compensator using root-locus specifications to satisfy transient-response and steady-state-error requirements. | Create |
| Signal processing | Learn the FFT. | Implement FFT-based spectral analysis for discrete-time signals and interpret aliasing, leakage, and resolution effects. | Apply / Analyze |
| Embedded systems | Understand interrupts. | Develop interrupt-driven firmware for sensor-actuator interfacing on a microcontroller and validate timing behavior with defined test cases. | Create |
| Digital systems / FPGA | Know Verilog. | Design, simulate, and verify a finite-state machine in Verilog HDL that meets stated functional and timing requirements. | Create |
| Measurement and instrumentation | Be familiar with calibration. | Calibrate a measurement chain using standard references and quantify sensitivity, repeatability, and uncertainty from recorded data. | Analyze |
| Power electronics | Understand converters. | Design and evaluate a buck converter to meet ripple and efficiency specifications using simulation and hardware measurements. | Create / Evaluate |
| Laboratory courses | Do op-amp experiments. | Measure gain, bandwidth, slew rate, and offset characteristics of op-amp circuits using standard lab instruments, and analyze deviation from theory. | Apply / Analyze |
| Project / thesis | Learn research methods. | Investigate an EEE problem through literature review, simulation or experiment, data interpretation, and evidence-based conclusions presented in a formal report or defense. | Evaluate / Create |
Bloom’s taxonomy for EEE courses
Use revised Bloom levels to choose a realistic cognitive target and match assessment methods to intended performance.
Searchable EEE action verb bank
CO–PO mapping logic
Alignment chain
PEO → PO → CO → Teaching-learning activity → Assessment task → Attainment evidence → CQI
A defensible mapping works both forward and backward. A CO should not point to a PO unless the course teaches that capability and assesses it directly enough to leave evidence in the course file.
Use this test before mapping
- Does the CO explicitly demand the capability described by the PO?
- Do students practice that capability in the course?
- Is there direct evidence in an assessment artifact?
- Would an external reviewer accept that evidence from the course file?
Current BUET EEE PO guidance
| PO | Usually map when the CO requires... | Do not map unless... |
|---|
Recommended internal mapping-strength rubric
| Strength | Meaning | Evidence usually needed | Recommended internal heuristic | Common misuse |
|---|---|---|---|---|
| 0 / blank | No meaningful contribution | No direct evidence path, or only topic mention | Leave blank | Filling every cell “just in case.” |
| 1 | Introductory / low contribution | One limited direct task or light exposure | Often about 5–10% of assessment | Giving 1 even when nothing is assessed. |
| 2 | Moderate / practiced contribution | Clear direct assessment in one substantial task or several smaller tasks | Often about 10–25% of assessment | Using 2 for a major design, lab, or thesis artifact. |
| 3 | Strong / major assessed contribution | The CO and a major assessment artifact clearly target the PO | Often above 25–30% or a major design/lab/project deliverable | Assigning 3 without substantial direct evidence. |
Worked examples by course type
CO: Analyze first-order RL and RC transient responses from governing equations and waveform plots, and predict time constants and steady-state values.
Likely map: PO-a strong; PO-b moderate to strong.
Evidence: worked tutorial set, midterm analytical problem, final exam script.
CO: Measure and analyze the gain, bandwidth, and non-ideal behavior of op-amp circuits using oscilloscope and function generator, and compare measured results with theoretical predictions.
Likely map: PO-d strong; PO-e moderate to strong; PO-j weak to moderate if reports are graded.
Evidence: lab sheet, raw data, lab report rubric, viva records.
CO: Design and evaluate a buck converter to meet ripple and efficiency specifications using simulation and hardware testing.
Likely map: PO-c strong; PO-d moderate; PO-e moderate to strong.
Evidence: design brief, simulation file, hardware validation, report, design review rubric.
CO: Develop, integrate, test, and document a microcontroller-based monitoring or control system that meets stated functional, safety, and performance requirements.
Likely map: PO-c strong; PO-e strong; PO-j moderate; PO-i moderate if team evidence exists; PO-k weak to moderate if planning and budgeting are assessed.
Evidence: proposal, Gantt chart, demo rubric, peer evaluation, technical report, presentation.
CO: Investigate a focused EEE problem through literature review, simulation and/or experiment, data interpretation, and evidence-based conclusions communicated in a thesis and oral defense.
Likely map: PO-b moderate; PO-d strong; PO-j moderate to strong; PO-l moderate to strong.
Evidence: proposal, literature matrix, methodology, data analysis, thesis chapters, defense rubric.
Interactive tools
These tools run fully offline in the browser. They produce first-pass suggestions; final academic judgment remains with the course instructor and OBE committee.
A. CO Builder Tool
B. Bloom Verb Finder
C. CO Quality Checker
D. CO–PO Mapping Assistant
E. Mapping Matrix Generator
F. Example Library Filter
G. Checklist Tool
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Checklist, templates, FAQ, and references
Copyable templates
Frequently asked questions
How many COs should a course have?
The reviewed BAETE materials do not prescribe a fixed number. Recommended practice is to keep the set limited, distinct, and assessable rather than long and repetitive.
Can one CO map to many POs?
Yes, but it should be uncommon. Most COs make a major contribution to only a small number of POs. Too many mappings usually indicate vague CO wording or evidence inflation.
Can a theory course map to design?
Yes, but only if there is a genuine design task with requirements, constraints, trade-offs, or open-ended solution development. Closed-form analytical problems alone are usually not enough for a strong design mapping.
Can a lab course map to communication?
Yes, if reports, oral presentation, posters, or technical documentation are directly assessed. If reporting is ungraded or perfunctory, the mapping should be weak or absent.
Can PO-g or PO-h be mapped because sustainability or ethics was mentioned once?
No. Sustainability and ethics mappings should be supported by explicit teaching-learning activity and assessed evidence such as a design reflection, case analysis, report criterion, or viva question.
Does investigation always require students to design the experiment from scratch?
No. Investigation can be demonstrated through appropriate experimentation, data interpretation, literature-backed inquiry, or realistic evidence synthesis. The key requirement is direct evidence of inquiry and interpretation.
References and source notes
- BUET EEE OBE landing page
- BUET EEE Program Educational Objectives and Program Outcomes page
- BAETE Accreditation Criteria v2.2
- BAETE Accreditation Criteria v3.0
- BAETE Self-Assessment Report Template v2.1
- International Engineering Alliance key documents
- IEA Graduate Attributes and Professional Competencies v4
- ABET Criteria for Accrediting Engineering Programs 2025–2026
- ABET FAQ on student outcomes and evidence
- Patricia Armstrong / Vanderbilt summary of Bloom’s revised taxonomy
- UIC Bloom’s taxonomy teaching guide
- Wright State guide on learning objectives and course outcomes
- Biggs, constructive alignment in university teaching
- Curriculum mapping framework and practical illustration
This page separates formal accreditation-sensitive statements from recommended departmental practice. The mapping assistant provides conservative guidance; departments should still apply the officially adopted program template and internal OBE committee decisions.
Guidance Notice
This page provides general academic guidance on Outcome Based Education (OBE), Course Outcome (CO) formulation, Bloom’s taxonomy application, and CO–PO mapping practices for Electrical and Electronic Engineering courses. It is intended as a support resource for faculty members, students, and accreditation preparation activities.
The content does not constitute an official rule, regulation, accreditation decision, or binding departmental, university, or regulatory policy. It should not be interpreted as a substitute for formally approved BUET curriculum documents, departmental guidelines, course-file templates, or accreditation requirements issued by relevant authorities.
Faculty members are expected to exercise professional academic judgment and refer to authoritative sources—including BUET academic policies, departmental OBE guidelines, BAETE accreditation manuals, Washington Accord graduate attributes, and program-specific criteria—when preparing Course Outcomes, CO–PO mappings, assessment strategies, and attainment reports.
This resource has been prepared using a combination of established academic practices and AI-assisted synthesis of publicly available accreditation and engineering education materials. While reasonable care has been taken to ensure accuracy and relevance, the content may contain simplifications, interpretive differences, or outdated elements.
Users are responsible for independently verifying all information before official or accreditation use. In the event of any inconsistency between this page and official BUET, BAETE, or accreditation documents, the official documents shall prevail. The Department of EEE, BUET reserves the right to revise or update this content without prior notice.