A student team presents a prototype that moves smoothly across the demonstration table. The design looks convincing. Then a tutor asks what would change if the available storage space were smaller. One student explains the trade-off. Another can describe the finished object but is unsure why its dimensions were chosen.
The prototype offers evidence about the team's work. It does not tell the whole story of each student's learning.
That distinction is a useful question for the ASEE Annual Conference 2027, scheduled for June 20–23 in Toronto, Ontario, Canada. Engineering education depends on collaboration, yet it also needs graduates who can explain and take responsibility for technical decisions. How can teaching make both visible?
This preview explores that question through design records, individual explanations and purposeful team discussion. The classroom examples are hypothetical, not reports of research findings or Learning Coach projects.
ASEE 2027: the confirmed conference picture
ASEE's official future-conference calendar confirms Toronto and the June 20–23, 2027 dates. The conference invitation names the theme Engineering Education as a Global Mosaic: People, Pieces, and Possibilities.
The invitation describes papers, posters, workshops, panels and plenary sessions as ways the community comes together. The Multidisciplinary Engineering Division's conference page identifies interests including educational research, classroom practice, curriculum design and laboratory development.
These sources establish the announced setting and scope. They do not establish the content of every accepted session or any future conference conclusion. Information was checked on October 28, 2026.
The mosaic theme offers a useful starting point for an educational inquiry: how can different contributions strengthen a shared project while giving every learner a meaningful opportunity to develop?
Engineering capability includes working with others and explaining decisions
The International Engineering Alliance's Graduate Attributes and Professional Competencies framework places individual and collaborative teamwork alongside communication in its graduate profiles. Its engineer profile addresses effective participation in diverse teams and communication about complex engineering activities.
The Alliance's documents page identifies the 2021 Version 4 framework as the official version in use. It is an international benchmark, not a controlled study of teaching methods or a complete set of grading instructions for a particular course.
The educational implication is worth discussing: collaboration and individual capability are complementary responsibilities. A curriculum should create opportunities for students to contribute to a team and to explain the reasoning they are developing through that work.
Neither responsibility is fully captured by the appearance of a final model.
Start with a decision the project requires
Consider a hypothetical undergraduate team designing a small classroom trolley. The object is a teaching prototype, not equipment intended for real-world use.
The brief asks students to move a set of materials through a restricted route and store the trolley afterwards. Students must compare possible dimensions and arrangements, explain their assumptions and decide what to test.
The educational purpose is more specific than producing something that rolls. It might include identifying relevant constraints, comparing alternatives and interpreting a test in relation to a design choice.
A tutor can therefore ask students to identify a consequential decision before they begin building. Why does the turning space matter? What information is missing? Which assumption could cause the design to fail the brief?
These questions keep the physical activity connected to an intellectual task. They also help students understand why they are being asked to document parts of the process.
Record the reasoning at moments when it can still change
A final report can make a project appear more orderly than it was. Students may describe the selected design clearly while leaving out the uncertainty and alternatives that shaped it.
A short record made during the work can preserve a different kind of evidence. Before changing the trolley's arrangement, the team could note the problem it is addressing, the alternatives considered and the reason for its choice. After a test, it could explain whether the result supported the assumption.
The record need not become a diary of every action. Excessive documentation can displace the design work it is supposed to illuminate. Select a few decisions that matter to the learning aims.
The tutor can then respond while revision remains possible. A question about an unsupported assumption is more useful before the next iteration than after the final presentation has ended.
This is a proposed classroom approach, not a validated assessment instrument. Its value would need to be examined in the actual course.
Ask each learner to reason about a changed constraint
The hypothetical storage requirement now changes. The trolley must fit into a smaller space. Students cannot simply repeat the explanation of their original design.
Each could first identify what the change affects and propose a response. The team could then compare these proposals, examine disagreements and decide what further information is needed.
An individual explanation makes the learner's reasoning available for feedback. The subsequent discussion allows students to learn from one another. The sequence supports collaboration without requiring the tutor to infer every student's understanding from a single team answer.
The changed task must remain appropriate to what students have been taught. An unexpected constraint should create an opportunity to apply knowledge, rather than become a trick designed to catch someone out.
A useful explanation might acknowledge that the student cannot yet justify a choice. Identifying that gap is a starting point for learning, not automatically evidence of misconduct or disengagement.
Keep participation substantive
Dividing work can help a team manage a project. It can also leave students with narrow responsibilities that limit their access to the central reasoning.
One person may repeatedly operate a design tool while another prepares slides. Both tasks can be valuable. The question is whether the course gives each learner opportunities to understand the decisions it intends to teach.
Teams could discuss an important choice before assigning the next practical tasks. A student preparing a drawing could explain the assumptions behind it. A peer responsible for testing could ask what result would challenge those assumptions.
Roles can change when that supports the learning aim. They should not be rotated mechanically if doing so ignores preparation, access needs or the time required to learn a task.
The tutor's attention belongs on meaningful contribution and developing capability, rather than equal quantities of visible activity.
Communication can reveal technical understanding
A polished presentation can help an audience follow a project. Technical communication also involves explaining uncertainty, responding to a question and making the basis of a decision understandable.
In the trolley example, a tutor might ask a student to explain one design choice to a peer who has not worked on that component. The peer could then describe what they understood and what remains unclear.
This exchange can reveal a missing connection in the explanation. It can also reveal that the listener needs additional knowledge. Both are educationally useful findings.
Students may need support to communicate their reasoning. A sketch, short written explanation or structured conversation can make different aspects of understanding visible. The format should serve the learning aim and the institution's assessment arrangements.
Fast speech or confidence should not quietly replace the technical criteria the course intended to examine.
Tools should support a decision that students can discuss
Engineering tools can extend what students are able to explore. The educational challenge is to keep the relationship between a tool's output and the student's judgement understandable.
If software produces a drawing or model, the student should still have opportunities to explain relevant assumptions and interpret the output within the task. The same principle applies when a team uses automated assistance during documentation.
This does not require banning useful tools or assuming that assistance prevents learning. It requires the course team to identify which capabilities students are expected to develop and how those capabilities will become visible.
For some tasks, using a tool competently is itself part of the learning aim. For others, students may need to demonstrate reasoning through another form of work. The distinction should be explicit before assessment.
A faculty inquiry can be smaller than a curriculum overhaul
A department could begin by examining one existing team project. Staff might identify its intended learning outcomes, the decisions students make and the evidence currently used to judge individual learning.
They may find that some evidence already exists in feedback meetings, drafts or student explanations. The next step could be to make one of these moments more purposeful, rather than add a large new assessment requirement.
A limited trial could examine whether a brief individual explanation helps tutors give more useful feedback. Students could comment on whether the task clarified the learning aim or simply added workload.
Such information would support revision of the approach. It would not, on its own, establish that a change caused improved graduate capability.
For a delegation attending ASEE, this gives a concrete inquiry to bring into conversations with colleagues: how do others connect team design work with evidence of each learner's reasoning?
Use the conference to examine differences between contexts
A practice presented by another institution may depend on class size, tutor expertise, laboratory access or the position of a project within a programme.
Rather than ask only whether a method was successful, delegates can investigate what students were learning, how the approach was used and what remained difficult. A method suited to a final-year project may need substantial adaptation for an introductory course.
The multidisciplinary setting can make these differences productive. Colleagues may share a concern about judgement while using different disciplinary tasks to develop and observe it.
A useful outcome is a clearer question for one's own teaching team, supported by a better understanding of what another institution actually tried.
Design a campus conversation around learning
A university event can open the wider discussion about engineering learning, independent thinking and collaboration. A subsequent working session can examine an actual project brief and decide which part of the learning process needs attention.
Learning Coach's guide to choosing a university keynote focuses on AI, learning and critical thinking. A relevant principle is to define the academic question before selecting the speaker.
The practical difference between opening a conversation and working through a response is developed in Keynote or Workshop for Educators?.
For a university forum on learning, independent judgement or human capabilities, explore Learning Coach's international keynotes and discuss an event shaped around your audience.
A team prototype can be an excellent achievement. The educational opportunity is to help every student explain what they learned in making it—and what they would reconsider when the problem changes.
Research scope and limitations
This article previews ASEE 2027 using official information available on October 28, 2026. It makes no claim about future accepted papers, speakers, proceedings or Learning Coach participation.
The International Engineering Alliance framework describes professional and graduate attributes; it does not establish the effectiveness of the proposed classroom activities. The trolley scenario and faculty inquiry are illustrative, not engineering specifications, safety instructions or evaluated interventions. Course-specific decisions require appropriate disciplinary expertise and institutional assessment arrangements.
References
ASEE. 2027 Annual Conference and Exposition. Official invitation, theme and general formats.
ASEE. Future Conference Dates. Toronto, June 20–23, 2027.
ASEE Multidisciplinary Engineering Division. Annual Conference. Division interests and forthcoming event information.
International Engineering Alliance. Graduate Attributes and Professional Competencies, Version 2021.1. Approved Version 4, June 2021; teamwork and communication profiles.
International Engineering Alliance. Documents. Current status of the framework; consulted October 28, 2026.
