Les équations quadratiques maudites
Les équations quadratiques maudites "this weird shape is the solution of a cursed quadratic equation where a is a triangle B is a circle and C is a spinning star and we can use different shapes to get different solutions this one is satisfying this one is stressful and this one is boring there are way too many options to put them all in the video so I made a website where you can switch things up yourself but before you do that let me explain what's going on what does it mean to put shapes in this equation instead of just regular numbers each shape is a collection of points and each point is a complex number the complex numbers are two-dimensional so we can use them to make shapes in my previous video I explored applying a function to a shape we take each point of the shape as an input to the function and graph the output the results are pretty cool and doing this made me wonder what if we combine different shapes like a triangle times a circle this presents a problem two different shapes have two different sets of points given this point on the triangle which point of the circle do we multiply with I decided to match points using their angles so this point on the triangle combines with this point on the circle since they are the same angle from the xaxis so now that we can match the points we can multiply shapes or add them or subtract them there's a lot we could do I think the quadratic formula is a wonderful way to Showcase this it has addition subtraction multiplication division and even a square root but it's kind of a pain to write so we'll instead write the equation that it solves all right let's do it let's say a is A square B is a circle and C is a triangle and the result is that's actually kind of disappointing uh what if a is a hexagon or if C is a pentagon H what if B is a triangle this is not very fun why do they all look the same to understand why let's make all three shapes a triangle the result is just two points what about all a square all a hexagon it's always just those two points since all the shapes are the same we could divide out that shape so that A B and C are all one input those into the quadratic formula and we get2 plus or minus < tk32 I and that's these two points returning viewers May recognize these as the eisenstein integers Omega and Omega squar three copies of any shape will just give these points but what if they're different shapes well since we're using points on the same angle the points will be close together so those Solutions are close to Omega and Omega squ I'd like something more interesting so let's split up those input points we'll make the circle negative the circle's point will have the negative angle of the other points okay this is a little better let's switch around the shapes and what if we make the triangle -2 okay what about a star well at any given angle there are two points which one do we pick to draw the star we have to make two laps around the origin so we can say that this point is 45s Pi radians since it's on the first lap and this is 14 fths Pi radians since it's on the second lap now each point has a unique angle so we know which to pick to match one: one with the circle we just take half of the angle so the first lap matches with the first half of the circle and the second with the second now we can get all three input points away from each other using a star a negative circle and a pentagon hey this one actually looks nice and so does this let's rotate that star cool this one's interesting and what if we add the points of the triangle wait there's six the triangle only has three points where the other three come from it's because of the square root each number has two Roots so each set of points gives two solutions the solution shape is actually a combination of a positive shape and a negative shape but it's not always clear which is which if we vary the radius of the circle we see the shapes split and this is why I animate just single points instead of trying to connect them when I first started writing the code yes okay very interesting more importantly changing the radius looks cool let's do that again and add the points very nice now now this pentagon is regular which is fine but what if it were a flower or if we made it wiggle or smooth let's add wiggle to the 11 gone these new shape types are really fun but I don't always know what to use so I added a random button to switch things around sometimes the result is amazing but sometimes it's not so I also added a Hearts button to cycle through some of my favorites though I won't spoil them all in this video you'll have to check them out yourself and if you find an equation that you really like you can copy the settings and then paste them here later to get right back where you were and you should also paste them in the comments I want to see the cool patterns you find and I'll add my favorite ones to this heart section that's all I have to say so thanks for watching and go play around with the site "
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