@m.anhh203: Đừng để anh pực pội 😤😤 | áo ig: tbo.vn #tbo

Nguyễn Mai Anh 🌷
Nguyễn Mai Anh 🌷
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Wednesday 13 March 2024 10:57:42 GMT
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gdwbdj
hằn :
xin link áo ạ
2024-03-13 15:04:54
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trugkien9
Thiều Trung Kiên ở An Giang :
💜
2024-03-13 11:24:39
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bin_3112009
Đăng Duc :
mê vãi òa 😂
2024-03-13 11:25:04
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euphoria_0012
Euphoria :
🌹
2024-03-13 11:26:50
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user431400554
Ước cao được m85 :
Xinh
2024-03-13 13:07:38
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hoangvanquan0309
Hoàng Quân :
❤️❤️❤️
2024-03-13 13:12:30
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nobodyknowmehuhu
NOBODY :
Mê lớp make up của bả quá
2024-03-13 17:56:01
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nguyenphuoc_2
Nguyễn Đức Phước :
gia trưởng mới lò đc cho em😅
2024-04-02 03:06:55
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tin.nh.1m8
Tiến Nhỏ 1m8⚽🏐 :
im koi😠
2024-04-29 19:04:07
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anhduyanh873 :
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2024-05-22 15:54:05
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fractal zoom pt. 21 #edit #fyp #viral #fractal #fypシ The Mandelbrot set is one of the most celebrated and visually striking objects in modern mathematics, serving as the quintessential example of what scientists and artists call a fractal. In simple terms, a fractal is a geometric shape that possesses infinite complexity and a property known as self-similarity, meaning that its overarching patterns tend to echo and repeat themselves across different scales. While familiar shapes like circles or triangles become smooth and featureless when magnified, a fractal defies everyday intuition by revealing brand-new layers of intricate detail at every magnification level. The Mandelbrot set itself arises from a surprisingly basic mathematical rule applied to points on a two-dimensional coordinate plane: each point is put through a repetitive feedback loop of simple arithmetic, and if the resulting numbers remain trapped within a certain limit forever, that point is declared part of the set. Because resolving these equations for millions of individual coordinates requires enormous computational power, modern computers are employed to generate visual renders of the shape. To create a render, a program analyzes each pixel on the screen and assigns colors based on the outcome of the calculation. Typically, the points that belong to the set are painted solid black, while the surrounding exterior points are shaded in vivid color gradients according to how rapidly their numbers spiral away toward infinity. The true magic of this construct reveals itself through zooming in, an interactive process where a viewer digitally magnifies any region along the boundary of the shape. As the magnification increases by thousands, millions, or even trillions of times, the border never blurs or flattens out into a plain line. Instead, zooming uncovers an inexhaustible wilderness of swirling tendrils, geometric spirals, and tiny, imperfect replicas of the original shape nestled deeply inside the larger structure. Through these computational renders, the Mandelbrot set translates a concise mathematical formula into an endless visual landscape, illustrating how limitless beauty and complexity can emerge from utter simplicity.
fractal zoom pt. 21 #edit #fyp #viral #fractal #fypシ The Mandelbrot set is one of the most celebrated and visually striking objects in modern mathematics, serving as the quintessential example of what scientists and artists call a fractal. In simple terms, a fractal is a geometric shape that possesses infinite complexity and a property known as self-similarity, meaning that its overarching patterns tend to echo and repeat themselves across different scales. While familiar shapes like circles or triangles become smooth and featureless when magnified, a fractal defies everyday intuition by revealing brand-new layers of intricate detail at every magnification level. The Mandelbrot set itself arises from a surprisingly basic mathematical rule applied to points on a two-dimensional coordinate plane: each point is put through a repetitive feedback loop of simple arithmetic, and if the resulting numbers remain trapped within a certain limit forever, that point is declared part of the set. Because resolving these equations for millions of individual coordinates requires enormous computational power, modern computers are employed to generate visual renders of the shape. To create a render, a program analyzes each pixel on the screen and assigns colors based on the outcome of the calculation. Typically, the points that belong to the set are painted solid black, while the surrounding exterior points are shaded in vivid color gradients according to how rapidly their numbers spiral away toward infinity. The true magic of this construct reveals itself through zooming in, an interactive process where a viewer digitally magnifies any region along the boundary of the shape. As the magnification increases by thousands, millions, or even trillions of times, the border never blurs or flattens out into a plain line. Instead, zooming uncovers an inexhaustible wilderness of swirling tendrils, geometric spirals, and tiny, imperfect replicas of the original shape nestled deeply inside the larger structure. Through these computational renders, the Mandelbrot set translates a concise mathematical formula into an endless visual landscape, illustrating how limitless beauty and complexity can emerge from utter simplicity.

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