“Everything is so linear, but this makes me think diagonally!” ~ a student describing Byrdseed.TV
In 1932, a leading authority on rattlesnakes, Laurence Klauber, discovered a startling pattern within a triangle of primes.
Pascal’s pattern-packed triangle is a potent puzzle for pupils to ponder.
Why does the sum of the first 5 odds also equal 5 squared?
What do you call two prime numbers who are very close together?
Can any even number be written as the sum of two primes? Goldbach thought so, but we haven’t proven it… yet!
Can any perfect square be written as the sum of two primes?
How can you cross each bridge in this city exactly once?
What if we make a huge spiral of numbers and then highlight only the primes? Well, a bunch of weird patterns show up!
Can you make each side of this triangle add up to 9 using the digits 1-6?
Prime numbers are unpredictable! How can we possibly find them all? An Ancient Greek mathematician found one way!
It seems like there’s always a prime number between two perfect squares… but is this always the case!?
Every positive integer can be written as the sum of (at most) four perfect squares!
The Collatz Conjecture: start with any number and get to 1 using just two rules. It seems to always work…
Imagine a 3×3 square in which every row, column, and diagonal have the same sum. That’s a magic square!
So, can you write every odd (greater than 3) as the sum of three primes?
No video gets me more email from students! How few colors can you use to color in any map so that no two, neighboring regions are the same color?
Using this one weird trick, it seems that you can turn any number into a palindrome!
