← All articles
Multiplication5 min read

Multiplication Facts: Memorize or Understand?

Every parent of a third grader eventually faces the times tables, and a nagging question: do we just drill these until they stick, or is there a better way? The honest answer is that understanding and memorization are not rivals. They are two steps, and the order matters.

The false choice

The debate usually gets framed as memorize versus understand, as though you had to pick a side. You do not. A child needs to know that six times four is twenty-four quickly, without a lap around their fingers, because fluency frees up attention for the harder thinking that multiplication is supposed to serve. But a child who has only memorized is fragile: forget the fact, and there is nothing to fall back on.

The trick is the sequence. Understanding first, then fluency. Build the meaning, and the facts have somewhere to live. Drill first, on top of nothing, and you get recitation that evaporates over the summer.

Two outcomes when a fact is forgotten: memorized only versus understood firstMemorized only7 × 6 = ?no anchor tofall back onStuckUnderstood first7 × 6 = ?rebuilds from7 × 5 = 35, + 7Recovers it
When a memorized fact slips, a child who only memorized has nothing to fall back on and is stuck. A child who understood it first can rebuild it, for example recovering 7 times 6 from 7 times 5. Understanding is the safety net.

What multiplication actually means

Before the facts, a child needs to know what the question is asking. Three times four means three groups of four. It is not three plus four, though a lot of children guess exactly that, and it is not a magic word for a bigger number. It is equal groups, repeated.

You can hear the misunderstanding when a child says five times three is the same as five plus three, or answers three groups of five with eight. These are not careless slips. They are a child who has met the symbol before the meaning. The cure is not more drilling. It is going back to the groups.

An array of four rows of seven dots7 in each row4 rows4 × 7 = 28
Four rows of seven dots. Multiplication is equal groups laid out as a rectangle, and the product is simply how many dots there are: 4 times 7 is 28.

The array model, and why it is worth your time

The single most useful picture for multiplication is the array: rows and columns of dots or squares. Three rows of four dots is three times four, and the answer is simply how many dots there are. It sounds almost too simple to matter, but the array quietly settles two of the hardest ideas in early multiplication.

First, it explains why order does not change the answer. Three rows of four, turned on its side, becomes four rows of three. Same rectangle, same dots, so three times four must equal four times three. A child who has physically turned the array can see why the order is free, instead of taking it on faith. Second, it connects multiplication to division: the same rectangle of twelve dots answers both twelve shared into three rows and how many rows of four make twelve. The two operations stop being separate things to memorize and become one picture read two ways.

A four by seven array equals the same array rotated to seven by four4 × 7 = 28=7 × 4 = 28
The same rectangle turned on its side. Four rows of seven and seven rows of four hold the same 28 dots, so 4 times 7 must equal 7 times 4. Order does not change the answer.
  • Draw it: for six times four, draw six rows of four dots and count them. The count is the product, and now the child has built it, not guessed it.
  • Turn it: rotate the same array a quarter turn and count again. Same answer. That is the commutative property, seen rather than stated.
  • Break it: a seven times six array can be split into a five times six piece and a two times six piece. If they know those two, they can rebuild the harder one. This is how understanding rescues a forgotten fact.

“One rectangle, read two ways: the array turns multiplication and division into the same picture.”

Then, and only then, build fluency

Once the meaning is solid, fast recall is genuinely worth chasing, and this is where practice earns its place. A child who understands arrays but has to reconstruct every fact will be too slow for the long division and fractions coming next. So drill, but drill facts the child already understands, and keep it light. Short, frequent bursts beat long joyless sessions. Skip counting, which is really the times tables in disguise, is a gentle on-ramp: a child who can count by fours is already reciting the four times table.

A useful sign of real fluency is that the child can recover a fact they blank on. Forgot seven times six? If they can say, well, seven times five is thirty-five, and one more group of seven is forty-two, they have both understanding and a fast anchor. That is the goal: not a child who has memorized instead of understanding, but one who has done both, in that order.

How Nova approaches it

Nova Academy, a personal math tutor powered by AI for grades 1-5, teaches multiplication in exactly this sequence. It starts with equal groups and the array model, so the meaning is in place, and it catches the classic mistakes, confusing times with plus, thinking order changes the product, before they harden into habits. Then it builds the facts to fluency with adaptive Extra Practice that leans on the understanding already there.

That is the whole argument in one line: memorize and understand is a false choice. Understand first, then memorize what you understand, and the times tables stop being a summer battle and become something your child owns.

Common questions

How quickly should a child know their multiplication facts?
A couple of seconds, without visibly counting up, by the end of third grade or early in fourth. The point of that speed is not speed itself; it is that a child working on long division cannot afford to spend their attention rebuilding six times seven. A child who takes four seconds and is right is in far better shape than one who is fast and guessing.
Are flashcards a bad idea?
Flashcards are fine once your child understands what multiplication means, and close to useless before that. Two rules make them work: keep the deck to the five or six facts your child actually misses, and keep the session under five minutes. A deck of every fact mostly practices the ones they already own.
What order should we learn the times tables in?
Start with the twos, fives and tens, because the patterns are visible and they hand your child an early win. Then the threes and fours, where doubling helps, since four times seven is just double two times seven. Leave the sixes, sevens, eights and nines until last, and by the time you get there most of them are already covered by facts your child knows the other way round.
My child knows the facts but still cannot do multiplication word problems. Why?
Because knowing a fact and recognizing when to use it are two different skills, and only the first one gets drilled. A child who can say six times four is twenty-four may still add when a problem describes four boxes of six. Practice naming the situation out loud without solving it: is this equal groups, or is this two amounts being put together?

Keep reading

Give your child a tutor of their own

Nova Academy is a personal math tutor powered by AI for grades 1-5, built on the Russian Math method. It meets your child at their level, guides them with the right question instead of the answer, and keeps you in the loop.

Start a free trial →

14-day free trial, cancel anytime

More from the blog on helping your child understand math.