Jogo De Multiplicação Para Confeccionar

How to Make a Multiplication Game Without Buying It

I've made three different multiplication games for kids over the years. The first one was card-based, the second used dice, and the third was a spinner wheel that took me two evenings to get right. The card game ended up in the trash within a month because the cards curled up in humid storage. That's the thing nobody tells you about paper games: environment matters more than design. If the cards are on cheap stock, they're done in a season. Lamination works, but then you need velcro or tape to make them playable, which adds another layer of failure points. The method I actually keep using is simpler than it sounds. You need a set of cards or tokens for numbers 1 through 12 on one side, and a separate deck with multiplication problems on the other. The game itself is turn-based. Player A flips a card, player B flips another, and whoever solves the resulting multiplication first wins both cards. It's basically a racing game disguised as flashcards, which is why kids don't notice they're drilling tables. The engagement trick here is the competition element. Without it, you're just doing worksheet work with colored paper.

jogo de multiplicação para confeccionar

Here's the practical breakdown. Gather cardstock, a printer or markers, scissors, and a container to store everything. Cut the cardstock into rectangles roughly 6 by 4 centimeters. On one set, write the numbers 1 through 12 in a random order across multiple cards. On the second set, write multiplication equations like "7 x 8 = 56" with the answer on the back. You can also make a variant where only the problem side is printed and players solve it mentally. I learned the hard way that there's a specific edge case with the answer-checking mechanic that breaks most homemade games. When players flip cards and check answers, they tend to peek at the reverse side before solving. This ruins the whole point. My workaround was to print the answers in light gray ink on the back instead of dark black. When the card is face down, the answer is barely visible. When it's face up, you have to deliberately flip it over to read the answer. This small change reduced cheating attempts from nearly constant to almost never. It took me about ten minutes to re-print the affected cards with lighter toner settings, which is nothing compared to rebuilding the entire deck.

Another detail people overlook is the ratio of problems to answers. A lot of beginners make equal numbers of problem cards and answer cards, then realize the game stalls because players keep flipping the same number. The solution is to weight the problem deck heavier than the answer deck. Roughly a 3-to-2 ratio works best in practice. You'll get more varied encounters and fewer repeats per session. This matters more than the visual design of the cards, which is the opposite of what most makers prioritize. If you want something more durable without spending money on specialized supplies, use old business cards or gift cards as your base material. They're rigid, resistant to bending, and you can write on them with dry-erase markers. A single set lasts years this way. The tradeoff is that dry-erase ink fades after heavy use, so you'll need to rewrite some cards every few months depending on frequency of play.

There are scenarios where this approach doesn't work well. If the child is under six years old, the reading requirement becomes a bottleneck. They can't decode the equations fast enough to compete, and the game turns into a reading exercise instead of a multiplication exercise. For that age range, picture-based grouping games are more appropriate. Similarly, if a student already knows all the tables cold, this game becomes tedious after about fifteen minutes. It's designed for practice, not mastery. Once someone reaches automatic recall, switching to timed challenges or a different format like multiplication bingo keeps things engaging without wasting materials. The total time investment for a basic version is around forty-five minutes to an hour, including cutting, printing, and assembling. A more refined version with lamination and velcro attachments pushes it to two or three hours. Factor in the cost of cardstock, which runs about two dollars for a pack of one hundred sheets at most office supply stores. That's significantly cheaper than any commercial multiplication game and infinitely more customizable if you need to adjust difficulty levels for different students.