For your child
The right next skill
Short practice matched to their mastery map, a few minutes at a time.
Hints, not answers
When they’re stuck, a question that points the way.
Progress they can see
A ring fills as each skill becomes secure.

Technology
Your child’s mentor works with the Hikmah platform. It tracks every skill against the Ontario curriculum, finds each gap and prepares the practice, so the mentor’s time goes to your child.
The Hikmah platform is in development. This page shows how it is designed to work.
At a glance
A tool for the mentor, built so your child’s next step is never a guess. Here is what it does, and what it never does.
Short practice matched to their mastery map, a few minutes at a time.
When they’re stuck, a question that points the way.
A ring fills as each skill becomes secure.
Every skill, mapped to the Ontario curriculum and kept current.
A missed question points back to the earlier skill to check.
Mastered skills come back weeks later, so they last.
A person always has the last word.
Our design commitments for the platform, which is in development.
How it connects
Each part feeds the next, with the mentor in the middle. Select a part to see what it does.
A friendly first assessment that finds where your child really is.
Every skill and the skills beneath it, kept current for your child.
Short lessons matched to the next skill, with hints rather than answers.
Fresh questions now, and return visits weeks later so skills last.
The person who knows your child. Reads the map, adjusts the plan, has the last word.
Real work for a real audience, where mastered skills come together.
A note in plain words: what changed, why and what’s next.
Mastery map and root-cause loop
The map links every skill to the skills beneath it. When one wobbles, it shows which earlier skill to check.
Lined up with what your child is taught at school.
Built from their diagnostic and every check since.
It changes as your child learns.
Why trace back
Early skills predict later ones: in large U.S. and U.K. studies, fractions and division in elementary school predicted high school algebra five or six years later.
Root found
Multiplication facts
Grade 3 · Rests on
What her mentor does nextThree short lessons on the 6, 7 and 8 times tables, with patterns she can see, then a fresh check.
Why a loop
Using frequent checks to adjust the teaching is linked to substantial learning gains.
Black and Wiliam (1998) (opens in a new tab)Kulik, Kulik and Bangert-Drowns (1990) (opens in a new tab)
A short mastery check.
An example
Ben, Grade 6, misses two questions on adding fractions with unlike denominators.
Find the skill underneath.
An example
Working backwards, the platform checks equivalent fractions, then multiplication facts. The 6s and 7s are the first skills that aren’t secure.
A focused lesson on the root.
An example
A short lesson on those facts, with patterns he can see, then a little daily practice.
Fresh questions, same skill.
An example
Fresh questions on adding fractions, ones he hasn’t seen. This time they come back clean.
A return visit, weeks later.
An example
A few weeks later, fractions come back in his practice to make sure the skill held.
Illustrative example.
Practice
The platform prepares your child’s practice in four moves, each drawn from research on how memory works.
A new kind of problem starts with the thinking shown step by step, so your child sees how before trying alone.
Why it works
Worked examples help most early on; as skill grows, the support should fade.
Atkinson and colleagues (2000) (opens in a new tab)Kalyuga and colleagues (2003) (opens in a new tab)
Your child solves a similar problem and says how. If they’re stuck, the hint is a question, not the answer.
Why it works
Explaining their reasoning helped learners across 64 studies, and feedback that carries more information, about the task, how to do it and how to check yourself, helps most.
Bisra and colleagues (2018) (opens in a new tab)Wisniewski, Zierer and Hattie (2020) (opens in a new tab)
New and older problem types are shuffled together, so your child learns to choose the method, not just repeat it.
Why it works
In 54 Grade 7 math classes, mixed practice led to 61% on a surprise test a month later, against 38%.
Mastered skills come back as quick recall questions, further apart each time, so they hold until the next grade needs them.
Why it works
Spread-out practice lasts longer than cramming, and recalling beats rereading.
Cepeda and colleagues (2006) (opens in a new tab)Roediger and Karpicke (2006) (opens in a new tab)
Illustrative screen. The Hikmah platform is in development.
Four views, one child
Choose anything with a number, or take the guided tour.
Maya · Grade 5
12 min todayFractions on a number line
Question 1 of 3
Tap where it goes on the line.
Yes. Four equal jumps, and you counted three of them.Not quite. Count the equal jumps from 0. How many make 3/4?
What does the 4 in 3/4 tell you about the jumps from 0 to 1?
Tap where it goes on the line.
That’s it. Two of three equal jumps.Close. Check that every jump is the same size, then count two.
Split the line into 3 equal jumps first. Then count.
Tap where it goes on the line.
Right. One jump short of 1.Not yet. Start from 1 and go back one sixth.
Is 5/6 closer to 0 or to 1? How far is it from 1?
Today’s session
Mastery
Fractions on a line
3/6 in a row
Mastery check after six in a row
Up next
Comparing fractions
Your project
Market day budget
Price list due Friday
Step 2 of 4
Illustrative screen. The Hikmah platform is in development.
What you’re looking at
Group 5A · Tuesday
Mastery map
Just now
Root found
Multiplication facts
Ben, Priya
Today
On the project wall
Learner profile
Grade 5
Focus now
Adding fractions with unlike denominators
Mentor note
Explains her thinking clearly. Ready to stretch on word problems.
Next steps
Learner profile
Grade 5
Focus now
Multiplication facts, the 6s and 7s
Mentor note
Fractions keep slipping. The trace shows why: the facts underneath aren’t secure yet.
Next steps
Learner profile
Grade 5
Focus now
Word problems with fractions
Mentor note
Strong on the skills. Working on choosing which one a problem needs.
Next steps
Learner profile
Grade 6
Focus now
Reading a word problem into a number sentence
Mentor note
Calculates well, rushes the reading. Slowing down the first read helps.
Next steps
Learner profile
Grade 5
Focus now
Multiplication facts, the 7s and 8s
Mentor note
Same root as Ben. Confident once she sees the pattern.
Next steps
Learner profile
Grade 5
Focus now
Explaining her reasoning in writing
Mentor note
Gets to answers quickly. Now learning to show the steps someone else can follow.
Next steps
Traced back
Both count on their fingers for 7 × 8, so finding a common denominator stalls.
Suggested group
15 minutes, Thursday 4:00, then a fresh check
Planned for Thursday at 4:00. Their families will see it in the next progress update.
Traced back
They can calculate. Turning the words into a number sentence is where it slips.
Suggested group
15 minutes, Thursday 4:00, then a fresh check
Planned for Thursday at 4:00. Their families will see it in the next progress update.
Illustrative screen. The Hikmah platform is in development.
What you’re looking at
Maya · Grade 5
From Maya’s mentor
Maya’s plan is written. She reads well ahead of grade, so we push further there. In math, fractions keep slipping; the root is multiplication facts. That’s where we start.
Mastered this month
Her plan, written
Next: Multiplication facts, the 6s, 7s and 8s
From Maya’s mentor
Maya knows her 6s, 7s and 8s without counting now, and finds equal fractions faster. She also started her project: a budget for the class market day.
Mastered this month
Multiplication facts
Next: Equivalent fractions
From Maya’s mentor
Maya mastered equivalent fractions and set her market day prices herself. Next: comparing fractions, which her budget needs. She explains her thinking clearly now.
Mastered this month
Equivalent fractions
Next: Comparing fractions, then her project budget
Sent. Her mentor usually replies within a day.
Her path so far
Try at home
Read prices aloud at the grocery store and round each one to the nearest dollar.
Try at home
Two minutes of times-table cards at dinner, the 7s only. She asks you some too.
Try at home
Cut a pizza into eighths. Which is bigger, 3/8 or 1/2? Ask her how she knows.
Thanks. Her mentor will ask her about it this week.
Illustrative screen. The Hikmah platform is in development.
What you’re looking at
Centre overview · Fall term
Illustrative dataSkills mastered
640Roots found and fixed
52Projects shown
18Mastery over the term
ElementaryAll programsWeeks 1 to 8
Capacities in projects this term
Illustrative dataFor us, not for show. We use this to improve and will publish real results once we have them.
Illustrative screen. The Hikmah platform is in development.
What you’re looking at
AI with care
Your child learns to use AI well, with guardrails, once they can do the thinking themselves. Here is the same question, two ways.
Illustrative screen. The Hikmah platform is in development.
What the research found
In a field experiment with nearly a thousand high school students, those who practised math with an unrestricted AI chatbot did better during practice but 17% worse on the exam once it was taken away than students who never had it. A version built to give hints instead of answers largely avoided that harm.
Our commitments
They review every plan and can override any suggestion.
Our tools give hints and questions, not answers.
Generated questions are checked against the curriculum before your child sees them.
Our design commitments for the platform.
Privacy by design
We collect only what learning needs, and you can see or delete it at any time.
Only what learning needs: answers, progress and the mentor’s notes.
To teach your child and improve how we teach. Nothing else.
Ask to see everything we hold about your child.
Ask, and your personal information is deleted sooner. Within 12 months after you leave, it’s removed anyway. Either way, only anonymous data stays.
Never
Sources
Each study cited above, with a link to the original. These are other researchers’ findings, not results from Hikmah, which isn’t open yet.
Siegler and colleagues (2012). Early predictors of high school mathematics achievement (opens in a new tab) Psychological Science.
Black and Wiliam (1998). Assessment and classroom learning (opens in a new tab) Assessment in Education: Principles, Policy and Practice, 5(1), 7–74.
Kulik, Kulik and Bangert-Drowns (1990). Effectiveness of mastery learning programs: A meta-analysis (opens in a new tab) Review of Educational Research, 60(2), 265–299.
Atkinson and colleagues (2000). Learning from examples: Instructional principles from the worked examples research (opens in a new tab) Review of Educational Research, 70(2), 181–214.
Kalyuga and colleagues (2003). The expertise reversal effect (opens in a new tab) Educational Psychologist, 38(1), 23–31.
Bisra and colleagues (2018). Inducing self-explanation: A meta-analysis (opens in a new tab) Educational Psychology Review.
Wisniewski, Zierer and Hattie (2020). The power of feedback revisited: A meta-analysis of educational feedback research (opens in a new tab) Frontiers in Psychology, 10, 3087.
Rohrer and colleagues (2020). A randomized controlled trial of interleaved mathematics practice (opens in a new tab) Journal of Educational Psychology, 112(1), 40–52.
Cepeda and colleagues (2006). Distributed practice in verbal recall tasks: A review and quantitative synthesis (opens in a new tab) Psychological Bulletin, 132(3), 354–380.
Roediger and Karpicke (2006). Test-enhanced learning: Taking memory tests improves long-term retention (opens in a new tab) Psychological Science, 17(3), 249–255.
Bastani and colleagues (2025). Generative AI without guardrails can harm learning: Evidence from high school mathematics (opens in a new tab) Proceedings of the National Academy of Sciences, 122(26), e2422633122.
What we’ll measure, and publish
Come and meet us. Founding families get a free diagnostic assessment that shows exactly where your child is, before you decide anything.