README.md · PythonSJL/PyPyNum

# PyPyNum

PyPyNum is a multifunctional Python math lib. It includes modules for math, data analysis, array ops, crypto, physics,
randomness, data prep, stats, solving eqns, image processing, interp, matrix calc, and high-precision math. Designed for
scientific computing, data science, and machine learning, PyPyNum provides efficient and versatile tools.

```
 ________   ___    ___  ________   ___    ___  ________    ___  ___   _____ ______
|\   __  \ |\  \  /  /||\   __  \ |\  \  /  /||\   ___  \ |\  \|\  \ |\   _ \  _   \
\ \  \|\  \\ \  \/  / /\ \  \|\  \\ \  \/  / /\ \  \\ \  \\ \  \\\  \\ \  \\\__\ \  \
 \ \   ____\\ \    / /  \ \   ____\\ \    / /  \ \  \\ \  \\ \  \\\  \\ \  \\|__| \  \
  \ \  \___| \/  /  /    \ \  \___| \/  /  /    \ \  \\ \  \\ \  \\\  \\ \  \    \ \  \
   \ \__\  __/  / /       \ \__\  __/  / /       \ \__\\ \__\\ \_______\\ \__\    \ \__\
    \|__| |\___/ /         \|__| |\___/ /         \|__| \|__| \|_______| \|__|     \|__|
          \|___|/                \|___|/
```

[![Downloads](https://static.pepy.tech/badge/pypynum)](https://pepy.tech/project/pypynum)
[![Downloads](https://static.pepy.tech/badge/pypynum/month)](https://pepy.tech/project/pypynum)
[![Downloads](https://static.pepy.tech/badge/pypynum/week)](https://pepy.tech/project/pypynum)

## Version -> 1.17.2 | PyPI -> https://pypi.org/project/PyPyNum/ | Gitee -> https://www.gitee.com/PythonSJL/PyPyNum | GitHub -> https://github.com/PythonSJL/PyPyNum

![LOGO](PyPyNum.png)

The logo cannot be displayed on PyPI, it can be viewed in Gitee or GitHub.

### Introduction

+ Multi functional math library, similar to numpy, scipy, etc., designed specifically for PyPy interpreters and also
  supports other types of Python interpreters
+ Update versions periodically to add more practical features
+ If you need to contact, please add QQ number 2261748025 (Py𝙿𝚢𝚝𝚑𝚘𝚗-水晶兰), or through my email 2261748025@qq.com

```
+++++++++++++++++++++++++++++++++++++++++
+ Tip:                                  +
+ Have suggestions or feature requests? +
+ Feel free to share them with us.      +
+ Your feedback is highly appreciated!  +
+++++++++++++++++++++++++++++++++++++++++
```

### Copyright and License

This Python library is licensed under the GNU Affero General Public License version 3 (AGPLv3).

The license is designed to ensure that network server software is made available to the community, allowing users to
access the source code of modified versions when the software is used to provide network services.

**Key Terms and Conditions:**

- Source Code: The library must be provided with its source code, and any modifications must also be distributed under
  the AGPLv3.
- Free Redistribution: The library can be distributed in source and binary forms without any restrictions.
- No Discrimination: The license does not restrict the use of the software by individuals or organizations, nor does it
  discriminate against fields of use.
- No Discrimination Against Persons or Groups: The license does not restrict anyone from receiving the software.
- Patent License: The patent holder must grant a patent license to anyone who uses the software.
- No Surrender of Others' Freedom: The license does not allow any conditions that contradict the AGPLv3.
- Remote Network Interaction: If the software can interact with users remotely, the source code must be made available
  at no charge.
- Revised Versions of this License: The Free Software Foundation may publish revised versions of the AGPLv3, and users
  have the option to follow the terms of any version.
- Disclaimer of Warranty: There is no warranty for the software, to the extent permitted by applicable law.
- Limitation of Liability: The copyright holder and any other party who modifies and conveys the software are not liable
  for damages arising from the use or inability to use the software.

**Full License Text:**

[GNU Affero General Public License](https://www.gnu.org/licenses/agpl-3.0.en.html)

### Name and Function Introduction of Submodules

### The Zen of PyPyNum (Preview)

```
                The Zen of PyPyNum, by Shen Jiayi

In this mathematical sanctuary, we weave our algorithms with pure Python threads.

Precision outweighs approximation.
Elegance in mathematics transcends the bulky algorithms.
Clarity in logic illuminates the darkest problems.
Simplicity in form is the pinnacle of sophistication.
Flat hierarchies in our code mirror the linear nature of functions.
Sparse code, like a minimal polynomial, retains essence without redundancy.
```

```
...

Do you want to view all the content?

Enter "from pypynum import this" in your

Python interpreter and run it!
```

```
                                                                September 5, 2024
```

### Functional Changes Compared to the Previous Version

```
!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=

Fixed some known issues.

!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=

The pypynum.utils module has recently introduced a new class
called RadixInt. This class is designed to facilitate the
representation and manipulation of integers in various bases,
ranging from base 2 to base 36.

The RadixInt class within the pypynum.utils module provides a
robust way to work with integers in custom bases. It allows
users to initialize instances with either a decimal number or a
string representation of a number in the desired base. The class
supports conversion between different bases, as well as basic
arithmetic operations that can be performed on integers
represented in various bases.

<<< The following are some usage examples >>>

from pypynum import RadixInt

# Base-2 and base-10 numbers
binary_num = RadixInt("1010", 2)
decimal_num = RadixInt(10, 10)
print(binary_num)  # Output: (1010)_{2}
print(decimal_num)  # Output: (10)_{10}
binary_to_octal = RadixInt("1010", 2).to_base(8)
print(binary_to_octal)  # Output: (12)_{8}
# Addition
result_add = binary_num + decimal_num
print(result_add)  # Output: (20)_{10}
# Base-8 and base-10 numbers
octal_num = RadixInt("123", 8)
decimal_num = RadixInt(5, 10)
# Subtraction
result_sub = octal_num - decimal_num
print(result_sub)  # Output: (78)_{10}
# Base-16 and base-2 numbers
hex_num = RadixInt("1A", 16)
binary_num = RadixInt("11", 2)
# Multiplication
result_mul = hex_num * binary_num
print(result_mul)  # Output: (78)_{10}

!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=!=
```

### Run Time Test

Python interpreter version

+ CPython 3.8.10

+ PyPy 3.10.12

| Matrix Time Test | NumPy+CPython (seconds) | Ranking | PyPyNum+PyPy (seconds) | Ranking | Mpmath_+_PyPy_ (seconds) | Ranking | SymPy_+_PyPy_ (seconds) | Ranking |
|------------------------------------------------|------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------|---------|------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------|---------|----------------------------------------------------------------------------------------------------------------------------------------------------------------------------------|---------|--------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------|---------|
| Create a hundred order random number matrix | 0.000083 | 1 | 0.005374 | 2 | 0.075253 | 3 | 0.230530 | 4 |
| Create a thousand order random number matrix | 0.006740 | 1 | 0.035666 | 2 | 1.200950 | 3 | 4.370265 | 4 |
| Addition of matrices of order one hundred | 0.000029 | 1 | 0.002163 | 2 | 0.045641 | 4 | 0.035700 | 3 |
| Adding matrices of order one thousand | 0.002647 | 1 | 0.019111 | 2 | 1.746957 | 4 | 0.771542 | 3 |
| Determinant of a hundred order matrix | 0.087209 | 2 | 0.016331 | 1 | 4.354507 | 3 | 5.157206 | 4 |
| Determinant of a thousand order matrix | 0.616113 | 1 | 3.509747 | 2 | It takes a long time | 3 | It takes a long time | 4 |
| Finding the inverse of a hundred order matrix | 0.162770 | 2 | 0.015768 | 1 | 8.162948 | 3 | 21.437424 | 4 |
| Finding the inverse of a thousand order matrix | 0.598905 | 1 | 17.072552 | 2 | It takes a long time | 3 | It takes a long time | 4 |
| Array output effect | ```[[[[ -7 -67]``` ```[-78  29]]``` ```[[-86 -97]``` ```[ 68  -3]]]``` ```[[[ 11  42]``` ```[ 24 -65]]``` ```[[-60  72]``` ```[ 73   2]]]]``` | / | ```[[[[ 37  83]``` ```[ 40   2]]``` ```[[ -5 -34]``` ```[ -7  72]]]``` ```[[[ 13 -64]``` ```[  6  90]]``` ```[[ 68  57]``` ```[ 78  11]]]]``` | / | ```[-80.0   -8.0  80.0  -88.0]``` ```[-99.0  -43.0  87.0   81.0]``` ```[ 20.0  -55.0  98.0    8.0]``` ```[  8.0   44.0  64.0  -35.0]``` (Only supports matrices) | / | ```⎡⎡16   -56⎤  ⎡ 8   -28⎤⎤``` ```⎢⎢        ⎥  ⎢        ⎥⎥``` ```⎢⎣-56  56 ⎦  ⎣-28  28 ⎦⎥``` ```⎢                      ⎥``` ```⎢ ⎡-2  7 ⎤   ⎡-18  63 ⎤⎥``` ```⎢ ⎢      ⎥   ⎢        ⎥⎥``` ```⎣ ⎣7   -7⎦   ⎣63   -63⎦⎦``` | / |

### Basic Structure

```
PyPyNum
├── arrays
│   ├── CLASS
│   │   ├── Array(object)/__init__(self: Any, data: Any, check: Any) -> Any
│   │   └── BoolArray(pypynum.arrays.Array)/__init__(self: Any, data: Any, check: Any) -> Any
│   └── FUNCTION
│       ├── array(data: Any) -> Any
│       ├── asarray(data: Any) -> Any
│       ├── aslist(data: Any) -> Any
│       ├── boolarray(data: Any) -> Any
│       ├── fill(shape: typing.Union[list, tuple], sequence: typing.Union[list, tuple, str], repeat: bool, pad: typing.Any, rtype: typing.Callable) -> typing.Any
│       ├── full(shape: typing.Union[list, tuple], fill_value: typing.Any, rtype: typing.Callable) -> typing.Any
│       ├── full_like(a: typing.Any, fill_value: typing.Any, rtype: typing.Callable) -> typing.Any
│       ├── get_shape(data: Any) -> Any
│       ├── is_valid_array(_array: Any, _shape: Any) -> Any
│       ├── ones(shape: typing.Union[list, tuple], rtype: typing.Callable) -> typing.Any
│       ├── ones_like(a: typing.Any, rtype: typing.Callable) -> typing.Any
│       ├── tensorproduct(tensors: pypynum.arrays.Array) -> pypynum.arrays.Array
│       ├── zeros(shape: typing.Union[list, tuple], rtype: typing.Callable) -> typing.Any
│       └── zeros_like(a: typing.Any, rtype: typing.Callable) -> typing.Any
├── chars
│   ├── CLASS
│   └── FUNCTION
│       ├── int2subscript(standard_str: str) -> str
│       ├── int2superscript(standard_str: str) -> str
│       ├── subscript2int(subscript_str: str) -> str
│       └── superscript2int(superscript_str: str) -> str
├── ciphers
│   ├── CLASS
│   └── FUNCTION
│       ├── atbash(text: str) -> str
│       ├── base_64(text: str, decrypt: bool) -> str
│       ├── caesar(text: str, shift: int, decrypt: bool) -> str
│       ├── hill256(text: bytes, key: list, decrypt: bool) -> bytes
│       ├── ksa(key: bytes) -> list
│       ├── morse(text: str, decrypt: bool) -> str
│       ├── playfair(text: str, key: str, decrypt: bool) -> str
│       ├── prga(s: list) -> Any
│       ├── rc4(text: bytes, key: bytes) -> bytes
│       ├── rot13(text: str) -> str
│       ├── substitution(text: str, sub_map: dict, decrypt: bool) -> str
│       └── vigenere(text: str, key: str, decrypt: bool) -> str
├── consts
│   ├── CLASS
│   └── FUNCTION
├── crandom
│   ├── CLASS
│   └── FUNCTION
│       ├── randint_polar(left: int, right: int, mod: typing.Union[int, float], angle: typing.Union[int, float]) -> complex
│       ├── randint_rect(left: int, right: int, real: typing.Union[int, float], imag: typing.Union[int, float]) -> complex
│       ├── random_polar(mod: typing.Union[int, float], angle: typing.Union[int, float]) -> complex
│       ├── random_rect(real: typing.Union[int, float], imag: typing.Union[int, float]) -> complex
│       ├── uniform_polar(left: typing.Union[int, float], right: typing.Union[int, float], mod: typing.Union[int, float], angle: typing.Union[int, float]) -> complex
│       └── uniform_rect(left: typing.Union[int, float], right: typing.Union[int, float], real: typing.Union[int, float], imag: typing.Union[int, float]) -> complex
├── dataproc
│   ├── CLASS
│   │   └── Series(object)/__init__(self: Any, data: typing.Any, index: typing.Any) -> None
│   └── FUNCTION
├── dists
│   ├── CLASS
│   └── FUNCTION
│       ├── beta_pdf(x: Any, a: Any, b: Any) -> Any
│       ├── binom_pmf(k: Any, n: Any, p: Any) -> Any
│       ├── cauchy_cdf(x: Any, x0: Any, gamma: Any) -> Any
│       ├── cauchy_pdf(x: Any, x0: Any, gamma: Any) -> Any
│       ├── chi2_cdf(x: Any, df: Any) -> Any
│       ├── chi2_pdf(x: Any, df: Any) -> Any
│       ├── expon_cdf(x: Any, scale: Any) -> Any
│       ├── expon_pdf(x: Any, scale: Any) -> Any
│       ├── f_pdf(x: Any, dfnum: Any, dfden: Any) -> Any
│       ├── gamma_pdf(x: Any, shape: Any, scale: Any) -> Any
│       ├── geometric_pmf(k: Any, p: Any) -> Any
│       ├── hypergeom_pmf(k: Any, mg: Any, n: Any, nt: Any) -> Any
│       ├── invgauss_pdf(x: Any, mu: Any, lambda_: Any, alpha: Any) -> Any
│       ├── levy_pdf(x: Any, c: Any) -> Any
│       ├── log_logistic_cdf(x: Any, alpha: Any, beta: Any) -> Any
│       ├── log_logistic_pdf(x: Any, alpha: Any, beta: Any) -> Any
│       ├── logistic_cdf(x: Any, mu: Any, s: Any) -> Any
│       ├── logistic_pdf(x: Any, mu: Any, s: Any) -> Any
│       ├── lognorm_cdf(x: Any, mu: Any, sigma: Any) -> Any
│       ├── lognorm_pdf(x: Any, s: Any, scale: Any) -> Any
│       ├── logser_pmf(k: Any, p: Any) -> Any
│       ├── multinomial_pmf(k: Any, n: Any, p: Any) -> Any
│       ├── nbinom_pmf(k: Any, n: Any, p: Any) -> Any
│       ├── nhypergeom_pmf(k: Any, m: Any, n: Any, r: Any) -> Any
│       ├── normal_cdf(x: Any, mu: Any, sigma: Any) -> Any
│       ├── normal_pdf(x: Any, mu: Any, sigma: Any) -> Any
│       ├── pareto_pdf(x: Any, k: Any, m: Any) -> Any
│       ├── poisson_pmf(k: Any, mu: Any) -> Any
│       ├── rayleigh_pdf(x: Any, sigma: Any) -> Any
│       ├── t_pdf(x: Any, df: Any) -> Any
│       ├── uniform_cdf(x: Any, loc: Any, scale: Any) -> Any
│       ├── uniform_pdf(x: Any, loc: Any, scale: Any) -> Any
│       ├── vonmises_pdf(x: Any, mu: Any, kappa: Any) -> Any
│       ├── weibull_max_pdf(x: Any, c: Any, scale: Any, loc: Any) -> Any
│       ├── weibull_min_pdf(x: Any, c: Any, scale: Any, loc: Any) -> Any
│       └── zipf_pmf(k: Any, s: Any, n: Any) -> Any
├── equations
│   ├── CLASS
│   └── FUNCTION
│       ├── lin_eq(left: list, right: list) -> list
│       └── poly_eq(coefficients: list) -> list
├── fft
│   ├── CLASS
│   │   └── FT1D(object)/__init__(self: Any, data: Any) -> Any
│   └── FUNCTION
├── files
│   ├── CLASS
│   └── FUNCTION
│       ├── read(file: str) -> list
│       └── write(file: str, cls: object) -> Any
├── geoms
│   ├── CLASS
│   │   ├── Circle(object)/__init__(self: Any, center: typing.Union[list, tuple], radius: typing.Union[int, float]) -> Any
│   │   ├── Line(object)/__init__(self: Any, a: typing.Union[list, tuple], b: typing.Union[list, tuple]) -> Any
│   │   ├── Point(object)/__init__(self: Any, p: typing.Union[list, tuple]) -> Any
│   │   ├── Polygon(object)/__init__(self: Any, p: typing.Union[list, tuple]) -> Any
│   │   ├── Quadrilateral(object)/__init__(self: Any, a: typing.Union[list, tuple], b: typing.Union[list, tuple], c: typing.Union[list, tuple], d: typing.Union[list, tuple]) -> Any
│   │   └── Triangle(object)/__init__(self: Any, a: typing.Union[list, tuple], b: typing.Union[list, tuple], c: typing.Union[list, tuple]) -> Any
│   └── FUNCTION
│       └── distance(g1: Any, g2: Any, error: typing.Union[int, float]) -> float
├── graphs
│   ├── CLASS
│   │   ├── BaseGraph(object)/__init__(self: Any) -> Any
│   │   ├── BaseWeGraph(pypynum.graphs.BaseGraph)/__init__(self: Any) -> Any
│   │   ├── DiGraph(pypynum.graphs.BaseGraph)/__init__(self: Any) -> Any
│   │   ├── UnGraph(pypynum.graphs.BaseGraph)/__init__(self: Any) -> Any
│   │   ├── WeDiGraph(pypynum.graphs.BaseWeGraph)/__init__(self: Any) -> Any
│   │   └── WeUnGraph(pypynum.graphs.BaseWeGraph)/__init__(self: Any) -> Any
│   └── FUNCTION
├── groups
│   ├── CLASS
│   │   └── Group(object)/__init__(self: Any, data: Any, operation: Any) -> Any
│   └── FUNCTION
│       └── group(data: Any) -> Any
├── hypcmpnms
│   ├── CLASS
│   │   ├── Euler(object)/__init__(self: Any, y: typing.Union[int, float], p: typing.Union[int, float], r: typing.Union[int, float]) -> Any
│   │   ├── Octonion(object)/__init__(self: Any, s: typing.Union[int, float], t: typing.Union[int, float], u: typing.Union[int, float], v: typing.Union[int, float], w: typing.Union[int, float], x: typing.Union[int, float], y: typing.Union[int, float], z: typing.Union[int, float]) -> Any
│   │   └── Quaternion(object)/__init__(self: Any, w: typing.Union[int, float], x: typing.Union[int, float], y: typing.Union[int, float], z: typing.Union[int, float]) -> Any
│   └── FUNCTION
│       ├── convert(data: typing.Union[pypynum.hypcmpnms.Quaternion, pypynum.matrices.Matrix, pypynum.hypcmpnms.Euler], to: str) -> typing.Union[pypynum.hypcmpnms.Quaternion, pypynum.matrices.Matrix, pypynum.hypcmpnms.Euler]
│       ├── euler(yaw: typing.Union[int, float], pitch: typing.Union[int, float], roll: typing.Union[int, float]) -> pypynum.hypcmpnms.Euler
│       ├── octo(s: typing.Union[int, float], t: typing.Union[int, float], u: typing.Union[int, float], v: typing.Union[int, float], w: typing.Union[int, float], x: typing.Union[int, float], y: typing.Union[int, float], z: typing.Union[int, float]) -> pypynum.hypcmpnms.Octonion
│       └── quat(w: typing.Union[int, float], x: typing.Union[int, float], y: typing.Union[int, float], z: typing.Union[int, float]) -> pypynum.hypcmpnms.Quaternion
├── images
│   ├── CLASS
│   │   ├── BMP(pypynum.images.BaseImage)/__init__(self: Any) -> None
│   │   ├── BaseImage(object)/__init__(self: Any) -> None
│   │   └── PNG(pypynum.images.BaseImage)/__init__(self: Any) -> None
│   └── FUNCTION
│       └── crc(data: Any, length: Any, init: Any, xor: Any) -> Any
├── interp
│   ├── CLASS
│   └── FUNCTION
│       ├── bicubic(x: Any) -> Any
│       ├── contribute(src: Any, x: Any, y: Any, channels: Any) -> Any
│       ├── interp1d(data: typing.Union[list, tuple], length: int) -> list
│       └── interp2d(src: Any, new_height: Any, new_width: Any, channels: Any, round_res: Any, min_val: Any, max_val: Any) -> Any
├── kernels
│   ├── CLASS
│   └── FUNCTION
│       ├── det2x2kernel(a: typing.Union[list, tuple]) -> float
│       ├── det3x3kernel(a: typing.Union[list, tuple]) -> float
│       ├── det4x4kernel(a: typing.Union[list, tuple]) -> float
│       ├── eigen2x2kernel(a: typing.Union[list, tuple]) -> tuple
│       ├── inv2x2kernel(a: typing.Union[list, tuple]) -> list
│       ├── inv3x3kernel(a: typing.Union[list, tuple]) -> list
│       ├── inv4x4kernel(a: typing.Union[list, tuple]) -> list
│       ├── lu2x2kernel(a: typing.Union[list, tuple]) -> tuple
│       ├── lu3x3kernel(a: typing.Union[list, tuple]) -> tuple
│       ├── lu4x4kernel(a: typing.Union[list, tuple]) -> tuple
│       ├── matexp2x2kernel(a: typing.Union[list, tuple]) -> list
│       ├── matmul2x2kernel(a: typing.Union[list, tuple], b: typing.Union[list, tuple]) -> list
│       ├── matmul3x3kernel(a: typing.Union[list, tuple], b: typing.Union[list, tuple]) -> list
│       ├── matmul4x4kernel(a: typing.Union[list, tuple], b: typing.Union[list, tuple]) -> list
│       └── matpow2x2kernel(a: typing.Union[list, tuple], n: typing.Union[int, float, complex]) -> list
├── logics
│   ├── CLASS
│   │   ├── AND(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── Basic(object)/__init__(self: Any, label: Any) -> Any
│   │   ├── Binary(pypynum.logics.Basic)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── COMP(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── DFF(pypynum.logics.Unary)/__init__(self: Any, label: Any, pin0: Any, state: Any) -> Any
│   │   ├── FullAdder(pypynum.logics.Ternary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any, pin2: Any) -> Any
│   │   ├── FullSuber(pypynum.logics.Ternary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any, pin2: Any) -> Any
│   │   ├── HalfAdder(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── HalfSuber(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── JKFF(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any, state: Any) -> Any
│   │   ├── NAND(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── NOR(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── NOT(pypynum.logics.Unary)/__init__(self: Any, label: Any, pin0: Any) -> Any
│   │   ├── OR(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   ├── Quaternary(pypynum.logics.Basic)/__init__(self: Any, label: Any, pin0: Any, pin1: Any, pin2: Any, pin3: Any) -> Any
│   │   ├── TFF(pypynum.logics.Unary)/__init__(self: Any, label: Any, pin0: Any, state: Any) -> Any
│   │   ├── Ternary(pypynum.logics.Basic)/__init__(self: Any, label: Any, pin0: Any, pin1: Any, pin2: Any) -> Any
│   │   ├── TwoBDiver(pypynum.logics.Quaternary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any, pin2: Any, pin3: Any) -> Any
│   │   ├── TwoBMuler(pypynum.logics.Quaternary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any, pin2: Any, pin3: Any) -> Any
│   │   ├── Unary(pypynum.logics.Basic)/__init__(self: Any, label: Any, pin0: Any) -> Any
│   │   ├── XNOR(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   │   └── XOR(pypynum.logics.Binary)/__init__(self: Any, label: Any, pin0: Any, pin1: Any) -> Any
│   └── FUNCTION
│       └── connector(previous: Any, latter: Any) -> Any
├── maths
│   ├── CLASS
│   └── FUNCTION
│       ├── arrangement(n: int, r: int) -> int
│       ├── combination(n: int, r: int) -> int
│       ├── acos(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── acosh(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── acot(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── acoth(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── acsc(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── acsch(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── arrangement(n: int, r: int) -> int
│       ├── asec(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── asech(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── asin(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── asinh(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── atan(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── atanh(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── average(data: typing.Union[list, tuple], weights: typing.Union[list, tuple]) -> float
│       ├── beta(p: typing.Union[int, float], q: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── central_moment(data: typing.Union[list, tuple], order: int) -> float
│       ├── coeff_det(x: typing.Union[list, tuple], y: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── combination(n: int, r: int) -> int
│       ├── corr_coeff(x: typing.Union[list, tuple], y: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── cos(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── cosh(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── cot(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── coth(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── cov(x: typing.Union[list, tuple], y: typing.Union[list, tuple], ddof: int) -> typing.Union[int, float, complex]
│       ├── crt(n: typing.Union[list, tuple], a: typing.Union[list, tuple]) -> int
│       ├── csc(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── csch(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── cumprod(lst: typing.Union[list, tuple]) -> list
│       ├── cumsum(lst: typing.Union[list, tuple]) -> list
│       ├── deriv(f: Any, x: float, h: float, method: str, args: Any, kwargs: Any) -> Any
│       ├── erf(x: typing.Union[int, float]) -> float
│       ├── exgcd(a: int, b: int) -> tuple
│       ├── exp(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── factorial(n: int) -> int
│       ├── freq(data: typing.Union[list, tuple]) -> dict
│       ├── gamma(alpha: typing.Union[int, float]) -> float
│       ├── gcd(args: int) -> int
│       ├── geom_mean(numbers: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── harm_mean(numbers: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── integ(f: Any, x_start: typing.Union[int, float], x_end: typing.Union[int, float], n: int, args: Any, kwargs: Any) -> float
│       ├── iroot(y: int, n: int) -> int
│       ├── is_possibly_square(n: int) -> bool
│       ├── is_square(n: int) -> bool
│       ├── isqrt(x: int) -> int
│       ├── kurt(data: typing.Union[list, tuple], fisher: bool) -> float
│       ├── lcm(args: int) -> int
│       ├── ln(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── lowergamma(s: typing.Union[int, float, complex], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── mean(numbers: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── median(numbers: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── mod_order(a: int, n: int, b: int) -> int
│       ├── mode(data: typing.Union[list, tuple]) -> Any
│       ├── normalize(data: typing.Union[list, tuple], target: typing.Union[int, float, complex]) -> typing.Union[list, tuple]
│       ├── parity(x: int) -> int
│       ├── pi(i: int, n: int, f: Any) -> typing.Union[int, float, complex]
│       ├── power_mean(numbers: typing.Union[list, tuple], p: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── primitive_root(a: int, single: bool) -> typing.Union[int, list]
│       ├── product(numbers: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── ptp(numbers: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── quantile(data: list, q: float, interpolation: str, ordered: bool) -> float
│       ├── raw_moment(data: typing.Union[list, tuple], order: int) -> float
│       ├── roll(seq: typing.Union[list, tuple, str], shift: int) -> typing.Union[list, tuple, str]
│       ├── root(x: typing.Union[int, float, complex], y: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── sec(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── sech(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── sigma(i: int, n: int, f: Any) -> typing.Union[int, float, complex]
│       ├── sigmoid(x: typing.Union[int, float]) -> float
│       ├── sign(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── sin(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── sinh(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── skew(data: typing.Union[list, tuple]) -> float
│       ├── square_mean(numbers: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── std(numbers: typing.Union[list, tuple], ddof: int) -> typing.Union[int, float, complex]
│       ├── sumprod(arrays: typing.Union[list, tuple]) -> typing.Union[int, float, complex]
│       ├── tan(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── tanh(x: typing.Union[int, float]) -> typing.Union[int, float]
│       ├── totient(n: int) -> int
│       ├── uppergamma(s: typing.Union[int, float, complex], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── var(numbers: typing.Union[list, tuple], ddof: int) -> typing.Union[int, float, complex]
│       ├── xlogy(x: typing.Union[int, float, complex], y: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       └── zeta(alpha: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
├── matrices
│   ├── CLASS
│   │   └── Matrix(pypynum.arrays.Array)/__init__(self: Any, data: Any, check: Any) -> Any
│   └── FUNCTION
│       ├── cholesky(matrix: pypynum.matrices.Matrix, hermitian: bool) -> pypynum.matrices.Matrix
│       ├── diag(v: typing.Any, k: int, n: int, m: int) -> typing.Any
│       ├── diag_indices(n: int, k: int, m: int) -> tuple
│       ├── eigen(matrix: pypynum.matrices.Matrix) -> tuple
│       ├── hessenberg(matrix: pypynum.matrices.Matrix) -> tuple
│       ├── identity(n: int, m: int) -> pypynum.matrices.Matrix
│       ├── lu(matrix: pypynum.matrices.Matrix) -> tuple
│       ├── mat(data: Any) -> Any
│       ├── perm_mat(num_rows: int, num_cols: int, row_swaps: typing.Union[list, tuple], col_swaps: typing.Union[list, tuple], rtype: typing.Callable) -> typing.Any
│       ├── perm_mat_indices(num_rows: int, num_cols: int, row_swaps: typing.Union[list, tuple], col_swaps: typing.Union[list, tuple]) -> tuple
│       ├── qr(matrix: pypynum.matrices.Matrix, reduce: bool) -> tuple
│       ├── rank_decomp(matrix: pypynum.matrices.Matrix) -> tuple
│       ├── rotate90(matrix: pypynum.matrices.Matrix, times: int) -> pypynum.matrices.Matrix
│       ├── svd(matrix: pypynum.matrices.Matrix, full: bool, calc_uv: bool) -> tuple
│       ├── tril_indices(n: int, k: int, m: int) -> tuple
│       └── triu_indices(n: int, k: int, m: int) -> tuple
├── multiprec
│   ├── CLASS
│   │   └── MPComplex(object)/__init__(self: Any, real: Any, imag: Any, sigfigs: Any) -> Any
│   └── FUNCTION
│       ├── _remove_trailing_zeros(value: typing.Any) -> str
│       ├── _setprec(sigfigs: int) -> Any
│       ├── asmpc(real: typing.Union[int, float, str, decimal.Decimal, complex, pypynum.multiprec.MPComplex], imag: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> pypynum.multiprec.MPComplex
│       ├── frac2dec(frac: fractions.Fraction, sigfigs: int) -> decimal.Decimal
│       ├── mp_acos(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_asin(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_atan(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_atan2(y: typing.Union[int, float, str, decimal.Decimal], x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_catalan(sigfigs: int) -> decimal.Decimal
│       ├── mp_cos(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_cosh(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_e(sigfigs: int, method: str) -> decimal.Decimal
│       ├── mp_euler_gamma(sigfigs: int) -> decimal.Decimal
│       ├── mp_exp(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int, builtin: bool) -> decimal.Decimal
│       ├── mp_fresnel_c(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_fresnel_s(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       ├── mp_ln(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int, builtin: bool) -> decimal.Decimal
│       ├── mp_log(x: typing.Union[int, float, str, decimal.Decimal], base: typing.Union[int, float, str, decimal.Decimal], sigfigs: int, builtin: bool) -> decimal.Decimal
│       ├── mp_phi(sigfigs: int, method: str) -> decimal.Decimal
│       ├── mp_pi(sigfigs: int, method: str) -> decimal.Decimal
│       ├── mp_sin(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
│       └── mp_sinh(x: typing.Union[int, float, str, decimal.Decimal], sigfigs: int) -> decimal.Decimal
├── networks
│   ├── CLASS
│   │   └── NeuralNetwork(object)/__init__(self: Any, _input: Any, _hidden: Any, _output: Any) -> Any
│   └── FUNCTION
│       └── neuraln(_input: Any, _hidden: Any, _output: Any) -> Any
├── numbers
│   ├── CLASS
│   └── FUNCTION
│       ├── float2fraction(number: float, mixed: bool, error: float) -> tuple
│       ├── int2roman(integer: int, overline: bool) -> str
│       ├── int2words(integer: int) -> str
│       ├── parse_float(s: str) -> tuple
│       ├── roman2int(roman_num: str) -> int
│       ├── split_float(s: str) -> tuple
│       └── str2int(string: str) -> int
├── plotting
│   ├── CLASS
│   └── FUNCTION
│       ├── background(right: typing.Union[int, float], left: typing.Union[int, float], top: typing.Union[int, float], bottom: typing.Union[int, float], complexity: typing.Union[int, float], ratio: typing.Union[int, float], string: bool) -> typing.Union[list, str]
│       ├── binary(function: Any, right: typing.Union[int, float], left: typing.Union[int, float], top: typing.Union[int, float], bottom: typing.Union[int, float], complexity: typing.Union[int, float], ratio: typing.Union[int, float], error: Any, compare: Any, string: bool, basic: list, character: str, data: bool, coloration: Any) -> typing.Union[list, str]
│       ├── c_unary(function: Any, projection: str, right: typing.Union[int, float], left: typing.Union[int, float], top: typing.Union[int, float], bottom: typing.Union[int, float], complexity: typing.Union[int, float], ratio: typing.Union[int, float], string: bool, basic: list, character: str, data: bool, coloration: Any) -> typing.Union[list, str]
│       ├── change(data: typing.Union[list, str]) -> typing.Union[list, str]
│       ├── color(text: str, rgb: typing.Union[list, tuple]) -> str
│       └── unary(function: Any, right: typing.Union[int, float], left: typing.Union[int, float], top: typing.Union[int, float], bottom: typing.Union[int, float], complexity: typing.Union[int, float], ratio: typing.Union[int, float], string: bool, basic: list, character: str, data: bool, coloration: Any) -> typing.Union[list, str]
├── polys
│   ├── CLASS
│   │   └── Polynomial(object)/__init__(self: Any, terms: Any) -> Any
│   └── FUNCTION
│       ├── chebgauss(n: Any) -> Any
│       ├── chebpoly(n: Any, single: Any) -> Any
│       ├── from_coeffs(coeffs: Any) -> Any
│       ├── from_coords(coords: Any) -> Any
│       ├── laggauss(n: Any) -> Any
│       ├── lagpoly(n: Any, single: Any) -> Any
│       ├── leggauss(n: Any) -> Any
│       ├── legpoly(n: Any, single: Any) -> Any
│       └── poly(terms: Any) -> Any
├── pprinters
│   ├── CLASS
│   └── FUNCTION
│       └── pprint_matrix(matrix: Any, style: Any, output: Any) -> Any
├── random
│   ├── CLASS
│   └── FUNCTION
│       ├── __create_nested_list(dimensions: Any, func: Any) -> Any
│       ├── __validate_shape(shape: Any) -> Any
│       ├── choice(seq: typing.Union[list, tuple, str], shape: typing.Union[list, tuple]) -> Any
│       ├── gauss(mu: typing.Union[int, float], sigma: typing.Union[int, float], shape: typing.Union[list, tuple]) -> typing.Union[float, list]
│       ├── rand(shape: typing.Union[list, tuple]) -> typing.Union[float, list]
│       ├── randint(a: int, b: int, shape: typing.Union[list, tuple]) -> typing.Union[int, list]
│       └── uniform(a: typing.Union[int, float], b: typing.Union[int, float], shape: typing.Union[list, tuple]) -> typing.Union[float, list]
├── regs
│   ├── CLASS
│   └── FUNCTION
│       ├── lin_reg(x: typing.Union[list, tuple], y: typing.Union[list, tuple]) -> list
│       ├── par_reg(x: typing.Union[list, tuple], y: typing.Union[list, tuple]) -> list
│       └── poly_reg(x: typing.Union[list, tuple], y: typing.Union[list, tuple], n: int) -> list
├── seqs
│   ├── CLASS
│   └── FUNCTION
│       ├── arithmetic_sequence(a1: typing.Union[int, float], an: typing.Union[int, float], d: typing.Union[int, float], n: typing.Union[int, float], s: typing.Union[int, float]) -> dict
│       ├── bell(n: int) -> list
│       ├── bernoulli(n: int, single: bool) -> typing.Union[list, tuple]
│       ├── catalan(n: int, single: bool) -> typing.Union[int, list]
│       ├── farey(n: int) -> list
│       ├── fibonacci(n: int, single: bool) -> typing.Union[int, list]
│       ├── geometric_sequence(a1: typing.Union[int, float], an: typing.Union[int, float], r: typing.Union[int, float], n: typing.Union[int, float], s: typing.Union[int, float]) -> dict
│       ├── lucas(n: int, single: bool) -> typing.Union[int, list]
│       ├── padovan(n: int, single: bool) -> typing.Union[int, list]
│       ├── pascal(n: int) -> list
│       ├── pell(n: int, single: bool) -> typing.Union[int, list]
│       ├── pelllucas(n: int, single: bool) -> typing.Union[int, list]
│       ├── perrin(n: int, single: bool) -> typing.Union[int, list]
│       ├── recaman(n: int, single: bool) -> typing.Union[int, list]
│       ├── stirling1(n: int) -> list
│       ├── stirling2(n: int) -> list
│       ├── sylvester(n: int, single: bool) -> typing.Union[int, list]
│       ├── tetranacci(n: int, single: bool) -> typing.Union[int, list]
│       └── tribonacci(n: int, single: bool) -> typing.Union[int, list]
├── special
│   ├── CLASS
│   └── FUNCTION
│       ├── besseli0(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── besseli1(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── besseliv(v: typing.Union[int, float], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── besselj0(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── besselj1(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── besseljv(v: typing.Union[int, float], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── hyp0f1(b0: typing.Union[int, float, complex], z: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── hyp1f1(a0: typing.Union[int, float, complex], b0: typing.Union[int, float, complex], z: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── hyp2f1(a0: typing.Union[int, float, complex], a1: typing.Union[int, float, complex], b0: typing.Union[int, float, complex], z: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── hyppfq(a: typing.Union[list, tuple], b: typing.Union[list, tuple], z: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qbeta(a: typing.Union[int, float, complex], b: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qbinomial(n: typing.Union[int, float, complex], m: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qcos_large(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qcos_small(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qcosh_large(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qcosh_small(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qexp_large(z: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qexp_small(z: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qfactorial(n: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qgamma(n: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qpi(q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qpochhammer(a: typing.Union[int, float, complex], q: typing.Union[int, float, complex], n: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qsin_large(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qsin_small(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       ├── qsinh_large(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
│       └── qsinh_small(x: typing.Union[int, float, complex], q: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
├── stattest
│   ├── CLASS
│   └── FUNCTION
│       ├── chi2_cont(contingency: list, lambda_: float, calc_p: bool, corr: bool) -> tuple
│       ├── chisquare(observed: list, expected: list) -> tuple
│       ├── kurttest(data: list, two_tailed: bool) -> tuple
│       ├── mediantest(samples: Any, ties: Any, lambda_: Any, corr: Any) -> Any
│       ├── normaltest(data: list) -> tuple
│       └── skewtest(data: list, two_tailed: bool) -> tuple
├── symbols
│   ├── CLASS
│   └── FUNCTION
│       └── parse_expr(expr: str) -> list
├── tensors
│   ├── CLASS
│   │   └── Tensor(pypynum.arrays.Array)/__init__(self: Any, data: Any, check: Any) -> Any
│   └── FUNCTION
│       ├── ten(data: list) -> pypynum.tensors.Tensor
│       └── tensor_and_number(tensor: Any, operator: Any, number: Any) -> Any
├── test
│   ├── CLASS
│   └── FUNCTION
├── this
│   ├── CLASS
│   └── FUNCTION
├── tools
│   ├── CLASS
│   └── FUNCTION
│       ├── classify(array: typing.Union[list, tuple]) -> dict
│       ├── cos_sim(seq1: typing.Union[list, tuple, str], seq2: typing.Union[list, tuple, str], is_vector: bool) -> float
│       ├── damerau(x: typing.Union[list, tuple, str], y: typing.Union[list, tuple, str]) -> int
│       ├── dedup(iterable: typing.Union[list, tuple, str]) -> typing.Union[list, tuple, str]
│       ├── fast_pow(a: typing.Any, n: int, init: typing.Any, mul: typing.Callable) -> typing.Any
│       ├── findall(seq: typing.Union[list, tuple, str], pat: typing.Union[list, tuple, str]) -> list
│       ├── frange(start: typing.Union[int, float], stop: typing.Union[int, float], step: float) -> list
│       ├── geomspace(start: typing.Union[int, float], stop: typing.Union[int, float], number: int) -> list
│       ├── kmp_table(pattern: typing.Union[list, tuple, str]) -> list
│       ├── lcsubseq(x: typing.Union[list, tuple, str], y: typing.Union[list, tuple, str]) -> list
│       ├── lcsubstr(x: typing.Union[list, tuple, str], y: typing.Union[list, tuple, str]) -> list
│       ├── levenshtein(x: typing.Union[list, tuple, str], y: typing.Union[list, tuple, str]) -> int
│       ├── linspace(start: typing.Union[int, float], stop: typing.Union[int, float], number: int) -> list
│       ├── lstrip(sequence: typing.Any, keys: typing.Any) -> typing.Any
│       ├── magic_square(n: int) -> list
│       ├── primality(n: int, iter_num: int) -> bool
│       ├── prime_factors(integer: int, dictionary: bool, pollard_rho: bool) -> typing.Union[list, dict]
│       ├── primes(limit: int) -> list
│       ├── replace(seq: typing.Union[list, tuple], old: typing.Union[list, tuple], new: typing.Union[list, tuple], count: int) -> typing.Union[list, tuple]
│       ├── rstrip(sequence: typing.Any, keys: typing.Any) -> typing.Any
│       ├── semiprimes(limit: int) -> list
│       ├── split(iterable: typing.Union[list, tuple, str], key: typing.Union[list, tuple], retain: bool) -> list
│       ├── strip(sequence: typing.Any, keys: typing.Any) -> typing.Any
│       ├── strip_helper(sequence: typing.Any, keys_set: set, strip_start: bool, strip_end: bool) -> typing.Any
│       └── twinprimes(limit: int) -> list
├── trees
│   ├── CLASS
│   │   ├── BTNode(object)/__init__(self: Any, data: Any) -> Any
│   │   ├── BinaryTree(object)/__init__(self: Any, root: Any) -> Any
│   │   ├── MTNode(object)/__init__(self: Any, data: Any) -> Any
│   │   ├── MultiTree(object)/__init__(self: Any, root: Any) -> Any
│   │   ├── RBTNode(object)/__init__(self: Any, data: Any, color: Any) -> Any
│   │   └── RedBlackTree(object)/__init__(self: Any) -> Any
│   └── FUNCTION
├── types
│   ├── CLASS
│   └── FUNCTION
├── ufuncs
│   ├── CLASS
│   └── FUNCTION
│       ├── add(x: Any, y: Any) -> Any
│       ├── apply(a: Any, func: Any, rtype: Any) -> Any
│       ├── base_ufunc(arrays: Any, func: Any, args: Any, rtype: Any) -> Any
│       ├── divide(x: Any, y: Any) -> Any
│       ├── eq(x: Any, y: Any) -> Any
│       ├── floor_divide(x: Any, y: Any) -> Any
│       ├── ge(x: Any, y: Any) -> Any
│       ├── gt(x: Any, y: Any) -> Any
│       ├── le(x: Any, y: Any) -> Any
│       ├── lt(x: Any, y: Any) -> Any
│       ├── modulo(x: Any, y: Any) -> Any
│       ├── multiply(x: Any, y: Any) -> Any
│       ├── ne(x: Any, y: Any) -> Any
│       ├── power(x: Any, y: Any, m: Any) -> Any
│       ├── subtract(x: Any, y: Any) -> Any
│       └── ufunc_helper(x: Any, y: Any, func: Any) -> Any
├── utils
│   ├── CLASS
│   │   ├── InfIterator(object)/__init__(self: Any, start: typing.Union[int, float, complex], mode: str, common: typing.Union[int, float, complex]) -> Any
│   │   ├── IntervalSet(object)/__init__(self: Any, intervals: Any) -> Any
│   │   ├── LinkedList(object)/__init__(self: Any) -> Any
│   │   ├── LinkedListNode(object)/__init__(self: Any, value: Any, next_node: Any) -> Any
│   │   └── OrderedSet(object)/__init__(self: Any, sequence: Any) -> Any
│   └── FUNCTION
├── vectors
│   ├── CLASS
│   │   └── Vector(pypynum.arrays.Array)/__init__(self: Any, data: Any, check: Any) -> Any
│   └── FUNCTION
│       └── vec(data: Any) -> Any
└── zh_cn
    ├── CLASS
    └── FUNCTION
        ├── Fraction转为Decimal(分数对象: fractions.Fraction, 有效位数: int) -> decimal.Decimal
        ├── RC4伪随机生成算法(密钥序列: list) -> Any
        ├── RC4初始化密钥调度算法(密钥: bytes) -> list
        ├── RC4密码(文本: bytes, 密钥: bytes) -> bytes
        ├── ROT13密码(文本: str) -> str
        ├── S型函数(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── base64密码(文本: str, 解密: bool) -> str
        ├── x对数y乘积(x: float, y: float) -> float
        ├── y次方根(被开方数: typing.Union[int, float, complex], 开方数: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 一维傅里叶变换(数据: Any) -> pypynum.fft.FT1D
        ├── 上伽玛(s: typing.Union[int, float, complex], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 上标转整数(上标字符串: str) -> str
        ├── 下伽玛(s: typing.Union[int, float, complex], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 下标转整数(下标字符串: str) -> str
        ├── 中位数(数据: typing.List[float]) -> float
        ├── 中国剩余定理(n: typing.List[int], a: typing.List[int]) -> int
        ├── 中心矩(数据: typing.List[float], 阶数: int) -> float
        ├── 乘积和(多个数组: typing.List[typing.Any]) -> float
        ├── 代替密码(文本: str, 替换映射: dict, 解密: bool) -> str
        ├── 众数(数据: typing.List[typing.Any]) -> Any
        ├── 伽玛函数(alpha: float) -> float
        ├── 余切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 余割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 余弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 偏度(数据: typing.List[float]) -> float
        ├── 全一(形状: Any, 返回类型: Any) -> Any
        ├── 全部填充(形状: Any, 填充值: Any, 返回类型: Any) -> Any
        ├── 全零(形状: Any, 返回类型: Any) -> Any
        ├── 写入(文件: str, 对象: object) -> Any
        ├── 几何平均数(数据: typing.List[float]) -> float
        ├── 凯撒密码(文本: str, 移位: int, 解密: bool) -> str
        ├── 分位数(数据: list, 分位值: float, 插值方法: str, 已排序: bool) -> float
        ├── 判定系数(x: typing.List[float], y: typing.List[float]) -> float
        ├── 判断平方数(n: int) -> bool
        ├── 加权平均(数据: typing.List[float], 权重: typing.List[float]) -> float
        ├── 协方差(x: typing.List[float], y: typing.List[float], 自由度: int) -> float
        ├── 原根(a: int, 单个: bool) -> typing.Union[int, typing.List[int]]
        ├── 原点矩(数据: typing.List[float], 阶数: int) -> float
        ├── 双曲余切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 双曲余割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 双曲余弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 双曲正切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 双曲正割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 双曲正弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反余切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反余割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反余弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反双曲余切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反双曲余割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反双曲余弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反双曲正切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反双曲正割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反双曲正弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反正切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反正割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 反正弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 可能是平方数(n: int) -> bool
        ├── 填充序列(形状: Any, 序列: Any, 重复: Any, 填充: Any, 返回类型: Any) -> Any
        ├── 多次方根取整(被开方数: int, 开方数: int) -> int
        ├── 多精度余弦(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度双曲余弦(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度双曲正弦(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度反余弦(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度反正切(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度反正弦(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度圆周率(有效位数: int, 方法: str) -> decimal.Decimal
        ├── 多精度复数(实部: typing.Union[int, float, str, decimal.Decimal], 虚部: typing.Union[int, float, str, decimal.Decimal], 有效位数: int) -> pypynum.multiprec.MPComplex
        ├── 多精度对数(真数: typing.Union[int, float], 底数: typing.Union[int, float], 有效位数: int, 使用内置方法: bool) -> decimal.Decimal
        ├── 多精度方位角(y: typing.Union[int, float], x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度欧拉伽马(有效位数: int) -> decimal.Decimal
        ├── 多精度正弦(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度自然对数(真数: typing.Union[int, float], 有效位数: int, 使用内置方法: bool) -> decimal.Decimal
        ├── 多精度自然常数(有效位数: int, 方法: str) -> decimal.Decimal
        ├── 多精度自然指数(指数: typing.Union[int, float], 有效位数: int, 使用内置方法: bool) -> decimal.Decimal
        ├── 多精度菲涅耳余弦积分(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度菲涅耳正弦积分(x: typing.Union[int, float], 有效位数: int) -> decimal.Decimal
        ├── 多精度黄金分割率(有效位数: int, 方法: str) -> decimal.Decimal
        ├── 多项式方程(系数: list) -> list
        ├── 字符串转整数(字符串: str) -> int
        ├── 导数(函数: Any, 参数: float, 步长: float, 额外参数: Any, 额外关键字参数: Any) -> float
        ├── 峰度(数据: typing.List[float], 费希尔: bool) -> float
        ├── 希尔256密码(文本: bytes, 密钥: list, 解密: bool) -> bytes
        ├── 平均数(数据: typing.List[float]) -> float
        ├── 平方平均数(数据: typing.List[float]) -> float
        ├── 平方根取整(被开方数: int) -> int
        ├── 序列滚动(序列: typing.Iterator[typing.Any], 偏移: int) -> typing.Iterator[typing.Any]
        ├── 归一化(数据: typing.List[float], 目标: float) -> typing.List[float]
        ├── 扩展欧几里得算法(a: int, b: int) -> typing.Tuple[int, int, int]
        ├── 拆分浮点数字符串(字符串: str) -> tuple
        ├── 排列数(总数: int, 选取数: int) -> int
        ├── 数组(数据: list, 检查: bool) -> pypynum.arrays.Array
        ├── 整数转上标(标准字符串: str) -> str
        ├── 整数转下标(标准字符串: str) -> str
        ├── 整数转单词(整数: int) -> str
        ├── 整数转罗马数(整数: int, 上划线: bool) -> str
        ├── 方差(数据: typing.List[float], 自由度: int) -> float
        ├── 普莱费尔密码(文本: str, 密钥: str, 解密: bool) -> str
        ├── 最大公约数(args: int) -> int
        ├── 最小公倍数(args: int) -> int
        ├── 极差(数据: typing.List[float]) -> float
        ├── 标准差(数据: typing.List[float], 自由度: int) -> float
        ├── 模运算阶(a: int, n: int, b: int) -> int
        ├── 欧拉函数(n: int) -> int
        ├── 正切(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 正割(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 正弦(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 浮点数转分数(数值: float, 是否带分数: bool, 误差: float) -> tuple
        ├── 相关系数(x: typing.List[float], y: typing.List[float]) -> float
        ├── 积分(函数: Any, 积分开始: float, 积分结束: float, 积分点数: int, 额外参数: Any, 额外关键字参数: Any) -> float
        ├── 积累乘积(数据: typing.List[float]) -> float
        ├── 符号函数(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 类似形状全一(数组A: Any, 返回类型: Any) -> Any
        ├── 类似形状全零(数组A: Any, 返回类型: Any) -> Any
        ├── 类似形状填充(数组A: Any, 填充值: Any, 返回类型: Any) -> Any
        ├── 累乘积(序列: typing.List[float]) -> typing.List[float]
        ├── 累加和(序列: typing.List[float]) -> typing.List[float]
        ├── 线性方程组(左边: list, 右边: list) -> list
        ├── 组合数(总数: int, 选取数: int) -> int
        ├── 维吉尼亚密码(文本: str, 密钥: str, 解密: bool) -> str
        ├── 罗马数转整数(罗马数: str) -> int
        ├── 自然对数(真数: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 自然指数(指数: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 莫尔斯密码(文本: str, 解密: bool) -> str
        ├── 解析浮点数字符串(字符串: str) -> tuple
        ├── 误差函数(x: typing.Union[int, float]) -> typing.Union[int, float]
        ├── 读取(文件: str) -> list
        ├── 调和平均数(数据: typing.List[float]) -> float
        ├── 贝塔函数(p: float, q: float) -> float
        ├── 贝塞尔函数I0(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 贝塞尔函数I1(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 贝塞尔函数Iv(v: typing.Union[int, float], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 贝塞尔函数J0(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 贝塞尔函数J1(x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 贝塞尔函数Jv(v: typing.Union[int, float], x: typing.Union[int, float, complex]) -> typing.Union[int, float, complex]
        ├── 负一整数次幂(指数: int) -> int
        ├── 转为多精度复数(实部: typing.Union[int, float, str, decimal.Decimal, complex, pypynum.multiprec.MPComplex], 虚部: typing.Union[int, float, str, decimal.Decimal], 有效位数: int) -> pypynum.multiprec.MPComplex
        ├── 转换为列表(数据: Any) -> list
        ├── 转换为数组(数据: Any) -> pypynum.arrays.Array
        ├── 连续乘积(下界: int, 上界: int, 函数: typing.Callable) -> float
        ├── 连续加和(下界: int, 上界: int, 函数: typing.Callable) -> float
        ├── 阶乘函数(n: int) -> int
        ├── 阿特巴什密码(文本: str) -> str
        ├── 频率统计(数据: typing.List[typing.Any]) -> typing.Dict[typing.Any, int]
        └── 黎曼函数(alpha: float) -> float
```

### Code Testing

```python
from pypynum import (arrays, geoms, hypcmpnms, logics, matrices, multiprec, special, vectors,
                     ciphers, consts, equations, maths, plotting, random, regs, tools)

...

print(arrays.array())
print(arrays.array([1, 2, 3, 4, 5, 6, 7, 8]))
print(arrays.array([[1, 2, 3, 4], [5, 6, 7, 8]]))
print(arrays.array([[[1, 2], [3, 4]], [[5, 6], [7, 8]]]))

"""
[]
[1 2 3 4 5 6 7 8]
[[1 2 3 4]
 [5 6 7 8]]
[[[1 2]
  [3 4]]

[[5 6]
  [7 8]]]
"""

triangle = geoms.Triangle((0, 0), (2, 2), (3, 0))
print(triangle.perimeter())
print(triangle.area())
print(triangle.centroid())

"""
8.06449510224598
3.0
(1.6666666666666667, 0.6666666666666666)
"""

q0 = hypcmpnms.quat(1, 2, 3, 4)
q1 = hypcmpnms.quat(5, 6, 7, 8)
print(q0)
print(q1)
print(q0 + q1)
print(q0 * q1)
print(q0.inverse())
print(q1.conjugate())

"""
(1+2i+3j+4k)
(5+6i+7j+8k)
(6+8i+10j+12k)
(-60+12i+30j+24k)
(0.03333333333333333-0.06666666666666667i-0.1j-0.13333333333333333k)
(5-6i-7j-8k)
"""

a, b, c = 1, 1, 1
adder0, adder1 = logics.HalfAdder("alpha", a, b), logics.HalfAdder("beta", c, None)
xor0 = logics.XOR("alpha")
ff0, ff1 = logics.DFF("alpha"), logics.DFF("beta")
xor0.set_order0(1)
xor0.set_order1(1)
logics.connector(adder0, adder1)
logics.connector(adder0, xor0)
logics.connector(adder1, xor0)
logics.connector(adder1, ff0)
logics.connector(xor0, ff1)
print("sum: {}, carry: {}".format(ff0.out(), ff1.out()))

"""
sum: [1], carry: [1]
"""

m0 = matrices.mat([[1, 2], [3, 4]])
m1 = matrices.mat([[5, 6], [7, 8]])
print(m0)
print(m1)
print(m0 + m1)
print(m0 @ m1)
print(m0.inv())
print(m1.rank())

"""
[[1 2]
 [3 4]]
[[5 6]
 [7 8]]
[[ 6  8]
 [10 12]]
[[19 22]
 [43 50]]
[[ -1.9999999999999996   0.9999999999999998]
 [  1.4999999999999998 -0.49999999999999994]]
2
"""

mp_complex1 = multiprec.MPComplex("1.4142135623730950488016887242096980785696718753769",
                                  "2.7182818284590452353602874713527", sigfigs=30)
mp_complex2 = multiprec.MPComplex("1.7320508075688772935274463415059",
                                  "3.141592653589793238462643383279502884197169399375105820974944", sigfigs=40)
modulus = mp_complex1.modulus(sigfigs=25)
print("Modulus of the complex1:", modulus)
sqrt_complex = mp_complex2.sqrt()
print("Square root of the complex2:", sqrt_complex)
power_result = mp_complex1 ** mp_complex2
print("Power of complex1 raised to complex2:", power_result)
euler_gamma = multiprec.mp_euler_gamma(sigfigs=45)
print("Value of Euler's gamma constant:", euler_gamma)
log_2 = multiprec.mp_log(2, 10, sigfigs=50)
print("Logarithm of 2 (base 10):", log_2)
exp_e_squared = multiprec.mp_exp(multiprec.mp_e() ** 2, sigfigs=20)
print("Value of exp(e^2):", exp_e_squared)

"""
Modulus of the complex1: 3.064156670102011971734464
Square root of the complex2: 1.630869996965458756791024890326755654659+0.9631646481434200567938527724670041364524i
Power of complex1 raised to complex2: 0.144632311554759549910373681031-0.17337039786352194417298867399i
Value of Euler's gamma constant: 0.577215664901532860606512090082402431042159336
Logarithm of 2 (base 10): 0.30102999566398119521373889472449302676818988146211
Value of exp(e^2): 1618.1779919126535017
"""

print("Bessel Function of the first kind, order 0 at x=1:", special.besselj0(1))
print("Modified Bessel function of the first kind, order 1 at x=1:", special.besseli1(1))
print("Hypergeometric function 0F1 at z=0.5 with b0=1:", special.hyp0f1(1, 0.5))
print("Hypergeometric function 1F1 at z=1 with a0=1, b0=1:", special.hyp1f1(1, 1, 1))
print("q-Pochhammer Symbol with a=2+1j, q=0.5+0.1j, n=2+1j:", special.qpochhammer(2 + 1j, 0.5 + 0.1j, 2 + 1j))
print("q-Gamma Function at n=2 with q=0.5+0.1j:", special.qgamma(2, 0.5 + 0.1j))

"""
Bessel Function of the first kind, order 0 at x=1: 0.7651976865579666
Modified Bessel function of the first kind, order 1 at x=1: 0.565159103992485
Hypergeometric function 0F1 at z=0.5 with b0=1: 1.5660829297563503
Hypergeometric function 1F1 at z=1 with a0=1, b0=1: 2.7182818284590455
q-Pochhammer Symbol with a=2+1j, q=0.5+0.1j, n=2+1j: (-0.33353429405776575+1.8573191887407854j)
q-Gamma Function at n=2 with q=0.5+0.1j: (0.9999999999999989-4.953510875709033e-16j)
"""

string = "PyPyNum"
encrypted = ciphers.caesar(string, 10)
print(string)
print(encrypted)
print(ciphers.caesar(encrypted, 10, decrypt=True))
encrypted = ciphers.vigenere(string, "ciphers")
print(string)
print(encrypted)
print(ciphers.vigenere(encrypted, "ciphers", decrypt=True))
encrypted = ciphers.morse(string)
print(string)
print(encrypted)
print(ciphers.morse(encrypted, decrypt=True))

"""
PyPyNum
ZiZiXew
PyPyNum
PyPyNum
RgEfRle
PyPyNum
PyPyNum
.--. -.-- .--. -.-- -. ..- --
PYPYNUM
"""

v0 = vectors.vec([1, 2, 3, 4])
v1 = vectors.vec([5, 6, 7, 8])
print(v0)
print(v1)
print(v0 + v1)
print(v0 @ v1)
print(v0.normalize())
print(v1.angles())

"""
[1 2 3 4]
[5 6 7 8]
[ 5 12 21 32]
70
[0.18257418583505536  0.3651483716701107  0.5477225575051661  0.7302967433402214]
[1.1820279130506308, 1.0985826410133916, 1.0114070854293842, 0.9191723423169716]
"""

print(consts.TB)
print(consts.e)
print(consts.h)
print(consts.phi)
print(consts.pi)
print(consts.tera)

"""
1099511627776
2.718281828459045
6.62607015e-34
1.618033988749895
3.141592653589793
1000000000000
"""

p = [1, -2, -3, 4]
m = [
    [
        [1, 2, 3],
        [6, 10, 12],
        [7, 16, 9]
    ],
    [-1, -2, -3]
]
print(equations.poly_eq(p))
print(equations.lin_eq(*m))

"""
[(-1.5615528128088307-6.5209667308287455e-24j), (1.0000000000000007+3.241554513744382e-25j), (2.5615528128088294+4.456233626665941e-24j)]
[1.6666666666666665, -0.6666666666666666, -0.4444444444444444]
"""

print(maths.cot(consts.pi / 3))
print(maths.gamma(1.5))
print(maths.pi(1, 10, lambda x: x ** 2))
print(maths.product([2, 3, 5, 7, 11, 13, 17, 19, 23, 29]))
print(maths.sigma(1, 10, lambda x: x ** 2))
print(maths.var([2, 3, 5, 7, 11, 13, 17, 19, 23, 29]))

"""
0.577350269189626
0.886226925452758
13168189440000
6469693230
385
73.29
"""

plt = plotting.unary(lambda x: x ** 2, top=10, bottom=0, character="+")
print(plt)
print(plotting.binary(lambda x, y: x ** 2 + y ** 2 - 10, right=10, left=0, compare="<=", basic=plotting.change(plt)))
print(plotting.c_unary(lambda x: x ** x, right=2, left=-2, top=2, bottom=-2, complexity=20, character="-"))

"""
  1.00e+01|         +                               +         
          |                                                   
          |          +                             +          
          |                                                   
          |           +                           +           
          |            +                         +            
          |                                                   
          |             +                       +             
  5.00e+00|_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _
          |              +                     +              
          |               +                   +               
          |                +                 +                
          |                 +               +                 
          |                  +             +                  
          |                   +           +                   
          |                    +         +                    
          |                     +++   +++                     
  0.00e+00|________________________+++________________________
           -5.00e+00             0.00e+00             5.00e+00
  1.00e+01|         +                               +         
          |                                                   
          |          +                             +          
          |                                                   
          |.........  +                           +           
          |.............                         +            
          |..............                                     
          |................                     +             
  5.00e+00|................_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _
          |................                    +              
          |................                   +               
          |..............  +                 +                
          |.............    +               +                 
          |.........         +             +                  
          |                   +           +                   
          |                    +         +                    
          |                     +++   +++                     
  0.00e+00|________________________+++________________________
           -5.00e+00             0.00e+00             5.00e+00
  2.00e+00|           -                 -           -          -          -            -    
          |               -  -            -          -         -         -           -      
          |                     -           -         -        -        -          -        
          |-                       -          -       -       -        -         -          
          |     -   -                - -       --      -      -       -        -            
          |            -  -              -       -      -     -      -       -             -
          |                  -  - -       - --  - ---  -- -  --     -     - -         - -   
          |                         - -   -  --    --    -   -  - --     -       - -        
          |  -   -  - - -  -          - -- -   ---  ---  -   -   ---   --     - -           
          |             -    -  - - - --    ----- -- -- --- --  --  ---    --           -  -
          |               - -      -     ------------ ----  - --  -- - ---       - - -      
          |    -  -  -  - -  ----- - -- ----------------------- -- ----  - -- --            
          |   -  -   - -         - ---- ---------------------------------      - - - - -  - 
  0.00e+00|_ _ _ _ _ _ _ _-_-_-_-_---- ------------------------------------_-- _ _ _ _ _ _ _
          |            -  -   - - ----------------------------------------- -- - - - -      
          |   -  --  -  -       -- -  -  --------------------------------- -           -  - 
          |    -          - ---- - - -- --------------------- ----- ----    - -- -          
          |               -         - -- --------- -- -- -  -----  ---  -- -       - -  -   
          |             -  - -  - - - -    ---- --- --- --- --  --  ---     - -            -
          |  -   -  - -               - --     --   --   -   -    --   --       --          
          |                       - -     -  --    -    --   -- -  -     --        -  -     
          |                  -  -         - -   - - -  -- -   -     --      -           -   
          |            -  -            - -      --     --     -      -       - -           -
          |     -   -                -         -       -      -       -          -          
          |-                    -  -          -       -        -       -           -        
          |                  -              -         -        -        -            -      
          |               -               -          -         -         -                  
 -2.00e+00|___________-_________________-___________-_____________________-____________-____
           -2.00e+00                            0.00e+00                            2.00e+00
"""

print(random.gauss(0, 1, [2, 3, 4]))
print(random.rand([2, 3, 4]))
print(random.randint(0, 9, [2, 3, 4]))
print(random.uniform(0, 9, [2, 3, 4]))

"""
[[[0.19564108603837504, 1.01920370166293, -0.0432622197313817, 1.8767392228517594], [-0.9372140720220945, 0.6455939848661518, 0.06219926062283103, -0.03646501719525719], [-0.6575861228704779, -1.627831653990843, 1.4669927522358261, -2.1082184047042944]], [[-0.4550416369776341, 0.5921202822490813, 0.1393176939653395, -0.1994214479986489], [-0.559257919413219, -1.629764620332396, 0.04658277611512766, 0.20529751771180757], [0.492656546311569, 0.9731757491363898, -0.3281597719355017, -0.6855996837842998]]]
[[[0.9897608447208633, 0.9091539554606014, 0.839742901348473, 0.7483640950392159], [0.1271954637618754, 0.23914774960655272, 0.6603167703557995, 0.09706202212722614], [0.1020987366479954, 0.16628877700140854, 0.9844464087410161, 0.8213963537473721]], [[0.268434775377716, 0.8021623176316018, 0.48319517625501174, 0.30410149780944096], [0.8970313978138931, 0.9980790184879383, 0.1185467392465952, 0.19570961919567464], [0.08626090792820118, 0.5790211560246683, 0.7475290741004703, 0.8048613204213184]]]
[[[9, 0, 7, 5], [2, 7, 3, 5], [7, 6, 4, 2]], [[3, 4, 2, 0], [4, 2, 2, 1], [4, 5, 4, 9]]]
[[[8.067902792666303, 3.1398970785364244, 7.875028237778611, 7.766921948037462], [3.337337214716076, 2.852783099370506, 1.028257336777862, 7.822605535085232], [7.111199916783942, 5.890725764603359, 3.038605829888671, 6.272148674191553]], [[1.076715403659712, 6.806086377982102, 5.699002266942416, 1.1654651363361368], [1.3920577362733448, 8.527352563852686, 2.359964996027981, 5.183071574749471], [7.8250627862940725, 1.6259461468536924, 8.333173856724002, 5.068032713313034]]]
"""

print(regs.lin_reg(list(range(5)), [2, 4, 6, 7, 8]))
print(regs.par_reg(list(range(5)), [2, 4, 6, 7, 8]))
print(regs.poly_reg(list(range(5)), [2, 4, 6, 7, 8], 4))

"""
[1.5, 2.4000000000000004]
[-0.21428571428571563, 2.3571428571428625, 1.971428571428569]
[0.08333333333320592, -0.666666666666571, 1.4166666666628345, 1.1666666666688208, 1.9999999999999258]
"""

print(tools.classify([1, 2.3, 4 + 5j, "string", list, True, 3.14, False, tuple, tools]))
print(tools.dedup(["Python", 6, "NumPy", int, "PyPyNum", 9, "pypynum", "NumPy", 6, True]))
print(tools.frange(0, 3, 0.4))
print(tools.linspace(0, 2.8, 8))

"""
{<class 'int'>: [1], <class 'float'>: [2.3, 3.14], <class 'complex'>: [(4+5j)], <class 'str'>: ['string'], <class 'type'>: [<class 'list'>, <class 'tuple'>], <class 'bool'>: [True, False], <class 'module'>: [<module 'pypynum.tools' from 'C:\\Users\\Administrator\\PycharmProjects\\pythonProject\\pypynum\\tools.py'>]}
['Python', 6, 'NumPy', <class 'int'>, 'PyPyNum', 9, 'pypynum', True]
[0.0, 0.4, 0.8, 1.2000000000000002, 1.6, 2.0, 2.4000000000000004, 2.8000000000000003, 3.2]
[0.0, 0.39999999999999997, 0.7999999999999999, 1.2, 1.5999999999999999, 1.9999999999999998, 2.4, 2.8]
"""

# Tip:
# The test has been successfully passed and ended.
# These tests are only part of the functionality of this package.
# More features need to be explored and tried by yourself!
```

PythonSJL/PyPyNum

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