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Accreditation mapping

ABET Electrical Engineering

An ABET-aligned curriculum map for a BS Electrical Engineering program. Links program educational objectives and student outcomes to specific courses, providing documentation for accreditation reviewers.


What this map shows

The map above is a complete ABET-aligned curriculum map for a BS in Electrical Engineering. All 35 courses in the program are connected to 307 learning outcomes, and every outcome is aligned to one or more of the 15 ABET standards the program is evaluated against — the seven Criterion 3 student outcomes (SO1–SO7) plus eight EE-specific program criteria (circuit analysis, electronics, signal processing, electromagnetics, digital systems, power, control, and communications).

Click any ABET student outcome to see exactly which courses contribute to it. Click any course to see the learning outcomes it delivers and the ABET standards those outcomes satisfy. Pan across the program to see prerequisite chains. The whole self-study story — what’s taught, where, and which standards it satisfies — lives in a single queryable structure instead of a stack of spreadsheets.

This is what an accreditation evidence package looks like when it’s not a folder of documents.


Why ABET evidence is hard to assemble at site-visit time

Most engineering programs do the work of meeting ABET. The problem isn’t the curriculum — it’s the evidence. When an ABET site visit is six months out, the work begins:

  • Comb through 35 syllabi looking for learning outcome statements.
  • Build a course-by-outcome coverage matrix from scratch — sometimes for the third time in three cycles.
  • Email faculty asking which outcomes their course “really” addresses.
  • Reconcile mismatches between what the syllabus says and what the instructor remembers.
  • Assemble student work samples per outcome, per assessment cycle.
  • Hope that the assessment data tells a coherent story.

None of this is intellectually hard. It’s just laborious, redundant, and lossy — because the underlying alignment data was never structured in the first place.

A program coordinator at a mid-sized engineering school spends an estimated 200–400 hours assembling a single self-study report. Most of that work is reconstructing relationships that were always there but never written down as data.

The map above takes that latent structure and makes it explicit — once, then reusable across every accreditation cycle.


What an accreditation map shows that a coverage matrix can’t

Three things jump out of this BS Electrical Engineering map that a 35×7 spreadsheet would take a careful reviewer hours to surface:

The outcome every program covers — by accident

SO1 — Complex Problem Solving

276 alignments. Practically every course contributes.

Engineering programs over-evidence SO1 because problem-solving is what engineering courses do. This isn’t the part that fails a site visit — but it’s the part that consumes most of the assembly time when programs document each course one at a time. A network map shows the coverage instantly. You don’t need to enumerate 276 alignments by hand.

The outcome that fails site visits

SO7 — Lifelong Learning

Only 7 alignments — the classic ABET coverage gap.

SO7 (and to a lesser extent SO4 — ethics) is the outcome most engineering programs struggle to evidence. It’s not naturally embedded in technical content. In a coverage matrix, you might notice the column is sparse only after you finish populating it. In a network map, the under-covered outcome is visually obvious from day one — long before a site visit, when you still have time to address it.

The hidden continuous-improvement story

SO5 / SO4 — Teamwork & Ethics

Low but defensible coverage, concentrated in capstone.

Teamwork (17) and Ethics (15) cluster in Senior Design I/II, Engineering Ethics & Society, and Technical Communication for Engineers. That’s a real and defensible coverage story — but only if you can show the cluster on demand. A coverage matrix flattens it. A network map lets a program evaluator see the structure: “We deliver these outcomes through dedicated courses, not by hand-waving across the curriculum.”

Coverage of ABET Criterion 3 student outcomes in this program

SO1

Complex Problem Solving

276
SO2

Engineering Design

168
SO6

Experimentation & Analysis

63
SO3

Communication

24
SO5

Teamwork

17
SO4

Ethics & Professionalism

15
SO7

Lifelong Learning

7

Inbound alignment counts per ABET student outcome. SO7 (Lifelong Learning) — the column you don’t want to be sparse — is visible at a glance.


Why a coverage matrix isn’t enough

For decades, the standard way to document ABET alignment has been a coverage matrix: courses down the left, student outcomes across the top, an I / R / A (introduced / reinforced / assessed) in each cell. It’s simple, portable, and Excel-friendly.

It also hides almost everything ABET actually wants to see.

Old way

Coverage matrix

A flat grid of courses × outcomes. Easy to misread. Cells say “introduced / reinforced / assessed” but the rationale lives in the margins. A 35×7 matrix is the bare minimum; the EE Criterion 5 adds another 8 program criteria. You end up maintaining a 35×15 grid by hand.

Better way

Network map

Every alignment is an explicit edge between a specific learning outcome and a specific standard. Coverage gaps are visually obvious. The evaluator pans, zooms, and clicks — and every claim resolves to the exact piece of coursework that backs it.

What the matrix can’t represent:

  • Granularity below the course level. A course doesn’t align to an outcome. Specific learning outcomes within a course align to ABET standards. The matrix erases that detail.
  • Prerequisite structure. Senior Design I depends on Circuit Analysis II depends on Electronics I. That dependency chain matters when an evaluator asks how outcomes build cumulatively.
  • Both kinds of standards at once. ABET EAC accreditation requires meeting both Criterion 3 (general) and EE-specific Criterion 5 program criteria. That’s 15 columns in a matrix, growing.
  • Continuous improvement. When a course changes, every downstream impact has to be re-traced manually. In a network map, the relationships are already there — you edit one node and the implications are visible.

The full program, mapped

The complete BS Electrical Engineering program modeled as a network:

35
Courses
A full BS Electrical Engineering curriculum, from Calculus I to Senior Design II.
307
Learning outcomes
The granular skills and competencies students develop across the program.
776
Standard alignments
Each one a defensible link between coursework and an ABET student outcome.
15
ABET standards covered
7 Criterion 3 student outcomes + 8 EE-specific program criteria.

Courses are organized into seven subject areas — Mathematics & Sciences, Circuits & Electronics, Signals/Systems/Control, Electromagnetics & RF, Power & Energy Systems, Computing & Embedded Systems, and Capstone & Professional Practice. Each course has its own learning outcomes, and each outcome carries explicit satisfies edges to one or more ABET standards.

Prerequisite chains run across the program: 272 explicit requires relationships document how higher-level courses build on foundations. That structure is invisible in a coverage matrix and laborious to reconstruct in a self-study narrative.

Once built, this map is the source of truth. The next ABET cycle isn’t a 200-hour rebuild — it’s an update.


Build this for your own program

The map above was built using Outcomap. The same approach works for any ABET program, any accreditation framework, and any curriculum where alignment to standards matters.

What you can map:

  • ABET EAC — engineering programs (electrical, mechanical, civil, chemical, computer, biomedical, aerospace, industrial). Same Criterion 3 + program-specific criteria as the example above.
  • ABET CAC — computing programs (computer science, information systems, cybersecurity, data science). Different student outcomes, same methodology.
  • ABET ETAC and ANSAC — engineering technology and applied/natural sciences. Same mapping approach.
  • Other accreditors — HLC, SACSCOC, WASC, MSCHE, NEASC, AACSB, CAEP, ACEN, CCNE, NZQA, QAA. Pick your framework, define the standards as entities, build the map. Start from one of the accreditation templates and customize.

How Outcomap works:

  1. Upload your existing materials. Syllabi, program self-study reports, ABET criteria documents. AI extracts courses, outcomes, and standards as a draft map.
  2. Refine in the visual editor. Draw alignment edges, add prerequisite chains, fix any AI guesses. Faculty review their own courses in a UI they don’t need training to use.
  3. Publish for the site visit. One-click publish gives evaluators a live read-only URL — pan, zoom, click. Embed it in your self-study report. Export coverage tables.

Accreditation cycles are work that should compound. Each one shouldn’t start from scratch. The map is the asset that carries forward.


Data structure

Three-tier accreditation hierarchy: the Program at the top connects to Student Outcomes (ABET Criterion 3 a–k), which in turn connect to individual Courses. Edge weights can encode coverage level (introduced, reinforced, assessed).

Entity types

  • ProgramThe BS Electrical Engineering degree program.
  • Student OutcomeABET Criterion 3 student outcomes (a–k).
  • CourseRequired and elective courses in the curriculum.

Edge types

  • IncludesThe program includes a student outcome.
  • AddressesA course addresses or assesses a student outcome.

Frequently asked questions

What is an ABET curriculum map?
An ABET curriculum map shows how every course in a program contributes to ABET’s student outcomes. For an EAC-accredited engineering program, that means showing how 30+ courses align to the seven Criterion 3 student outcomes plus any program-specific criteria (for EE: circuit analysis, electronics, signal processing, electromagnetics, digital systems, power, control, and communications). A network map captures these alignments as first-class objects you can query, rather than as cells in a spreadsheet.
What is ABET Criterion 3?
Criterion 3 lists the seven student outcomes that every ABET EAC-accredited engineering program must address: (1) complex problem solving, (2) engineering design, (3) communication, (4) ethics and professional responsibility, (5) teamwork, (6) experimentation and analysis, and (7) lifelong learning. Programs must show how their curriculum prepares students to attain each outcome — and how they assess attainment.
What evidence does ABET expect during a site visit?
Program evaluators want to see direct evidence that each student outcome is taught, practiced, and assessed. That typically includes a course-to-outcome alignment matrix, sample student work tied to specific outcomes, assessment results, and a clear story for how the program closes the loop on continuous improvement. A live curriculum map lets a visitor pan, zoom, and click into any outcome to see exactly which courses cover it — no flipping through binders.
How is ABET different from HLC, SACSCOC, or WASC?
ABET accredits specific programs in engineering, computing, applied sciences, and engineering technology. HLC, SACSCOC, WASC, NEASC, and MSCHE are regional institutional accreditors — they evaluate the whole institution. The mapping methodology is similar (alignments between courses, outcomes, and standards) but the standards themselves differ. Outcomap works for both — you choose the framework and build the map.
Which ABET student outcome is hardest to document?
In most engineering programs, SO7 (lifelong learning) and SO4 (ethics and professional responsibility) are the hardest to evidence — they’re not naturally embedded in technical courses the way problem-solving and design are. A network map surfaces this gap visually: outcomes with few inbound alignments stand out immediately, before a site visit, when you still have time to address them.
Can I export an ABET self-study from Outcomap?
You can publish a live, interactive read-only version of your map for visiting evaluators, embed it in your self-study report or institutional website, and export coverage tables. Maps are private by default; sharing is one click.
Does Outcomap work for other accreditation frameworks?
Yes. The same methodology applies to ABET CAC (computing), ABET ETAC (engineering technology), HLC, SACSCOC, WASC, MSCHE, CAEP, AACSB, ACEN, CCNE, QAA, NZQA, and others. You define the framework’s standards as entities and draw alignment edges from your courses and outcomes.

Source. ABET Criterion 3 student outcomes and EAC general criteria are published by ABET. The Electrical Engineering program criteria, course list, and learning outcomes shown here are illustrative — the structure mirrors a typical ABET-accredited BS EE curriculum.

Ready to map your accreditation program?

Build, share, and publish your ABET evidence as a live interactive map. Free to start — fork the ABET template and customize for your program.