For teachers
What your students are doing on AVA, and how to see it
AVA gives 16 to 18 year olds structured, Socratic preparation for selective university applications. This page explains the pedagogy, how students can share their progress with you today, and gives you a classroom-ready resource on tutorial-style questioning.
The pedagogy, briefly
Everything on AVA is active recall with feedback. Students answer real-style interview questions out loud or in writing, defend positions in structured debates, sit timed admissions test mocks, and draft personal statement material through guided reflection. Each attempt gets specific feedback: what was strong, what was missing, and one thing to do next.
The questioning style is deliberately Socratic. Instead of telling students the model answer, AVA probes the answer they gave: what it assumes, what follows from it, where it breaks. That is the thinking selective interviews actually test, and it transfers directly to classroom discussion.
Safeguarding is built in, not bolted on: everything a student types passes through layered content filtering, there are no public profiles and no student-to-student messaging, and access pauses overnight.
Seeing student progress today
We do not give teachers a live view into student accounts, and we will not pretend otherwise. Students own their practice data, and sharing it is their decision. What works today is simple and in the student's hands:
The student practises on AVA
Interview answers, debates, admissions test mocks and personal statement reviews all generate specific feedback, saved to the student’s own account.
They choose what to share
On their My Attempts page, students select any or all attempts and export a clean PDF of their answers, scores and feedback. Their Readiness Matrix exports the same way.
They hand it to you
Printed or emailed by the student, on their terms. You see exactly what they chose to show you: real answers and real feedback, not a summary metric.
Try it now: ask a student to bring their exported attempts to your next one-to-one. The conversation it starts ("walk me through why this answer scored what it did") is itself Socratic.
An honest note on dashboards
A live teacher dashboard (cohort engagement, strong-reasoning topics, struggle points) is on our roadmap. It requires proper school onboarding first: a data sharing agreement, a privacy impact assessment, and student consent, because our users are minors and their practice answers can be personal. If your school wants to be an early partner, email contact@theaspiringmedics.co.uk.
Socratic questioning for your classroom
Oxford-style tutorial questioning is a learnable craft, not a mystique. Below are the five principles and three fully worked question ladders (science, humanities, maths) you can lift straight into a lesson. The whole resource prints to a handout for your department.
Ask about the reasoning, not the answer
A Socratic question targets HOW the student got there. "What made you rule out the other option?" does more work than "Is that your final answer?", because it makes the thinking visible to the whole room.
Wrong answers are the best material
In an Oxford tutorial a wrong answer is never closed down; it is traced. "Interesting. If that were true, what else would have to be true?" lets the student find the contradiction themselves, which sticks far longer than a correction.
Wait longer than feels comfortable
Tutorial questioning works because silence is allowed to do its job. After a hard question, count five seconds before rescuing. The first hand up is rarely the deepest thought in the room.
Climb one rung at a time
Each question should ask for one small step beyond the last answer: a reason, a consequence, an exception, a comparison. A ladder of small steps takes a class somewhere a single big question cannot.
End by naming the method
Close with thirty seconds of "what just happened?": we made a claim, tested it, found an exception, refined it. Students who can name the moves start making them on their own.
Three worked question ladders
Why does ice float?
Key Stage 4 chemistry or physics, whole class. Start from the everyday observation and ladder towards particle-level explanation and its consequences.
- 1
Open with the observation
"Ice floats on water. Should it? What do solids usually do in their own liquid?"
Anchors the discussion in something every student has seen, then immediately disturbs it: most solids sink in their own liquid. The anomaly creates the need for an explanation.
- 2
Ask for a first explanation
"So ice must be less dense than water. What would have to be true about the particles for that to happen?"
Moves from the macroscopic fact to the particle model. Students must commit to a mechanism, not just restate the observation.
- 3
Test the explanation
"You said the particles spread out when water freezes. Most substances do the opposite. What could hold water molecules apart in a solid?"
The class confronts the real puzzle: hydrogen bonding forcing an open lattice. Even if no one knows the term, they have now defined exactly what the missing piece must do.
- 4
Push to consequences
"Suppose ice sank instead. What would happen to a pond, and the fish in it, over a long winter?"
Transfers the mechanism to a new situation. Ponds freezing bottom-up and killing ecosystems shows the explanatory power of one structural fact.
- 5
Name the method
"Look back: we went from "ice floats" to a claim about molecules to a prediction about ponds. Which step was the actual science?"
Metacognitive close. Students see that the move from observation to testable mechanism IS the discipline, not vocabulary recall.
The pitfall
Do not supply "hydrogen bonding" too early. The moment the label arrives, thinking stops. Let the class specify what the bond must do first, then give them the name for the thing they already described.
Starters that work in any subject
- What would have to be true for that to work?
- Can you find a case where that breaks?
- How do you know? What is that based on?
- If you are right, what follows?
- What would change your mind?
- Is that always true, sometimes true, or true here only?
- Who can improve that answer rather than replace it?
- What is the strongest argument AGAINST what you just said?
Working with younger students?
Our Key Stage 3 taster shows 11 to 14 year olds what tutorial thinking feels like, with no AI and no typing. The parents page helps families support the process at home.