
Install and verify Anaconda on Windows by downloading the installer, launching Anaconda Navigator, and starting Jupyter Notebook with a Python 3 kernel in localhost.
Create numpy arrays from lists, tuples, and nested data with np.array, convert types with astype, and copy to preserve originals. Build arrays from buffers, files, strings, and iterables, including loadtxt.
Explore creating record arrays in NumPy, using structured data with labeled fields (id, name, price) and converting from tuples, arrays, records, strings, and files.
Explore numpy basics by using copyto to transfer data between source and destination arrays, observe in-place type conversion from int to float, and inspect ndim, shape, size, and axis.
Convert lists to arrays and explore numpy kinds like array, matrix, and Fortran. Verify contiguity and finite values with flags, and handle errors with try-except.
Explore numpy array dimension manipulation by converting inputs to at least 1d, 2d, and 3d, inspecting ndim and shape, and applying broadcast for element-wise operations, expanddims, and squeeze.
Learn to create new arrays by tiling blocks with NumPy tile and repeat, building larger grids by repeating values across rows and columns.
Explore NumPy array splitting techniques to divide an array into equal parts with split and unequal parts with array_split. Apply depth-wise, horizontal, and vertical splits, plus unstack in NumPy versions.
Learn how to pack bits and unpack bits in NumPy to convert numbers like 178 into binary forms such as 10110010, and format binary output with width.
Create numpy data types with dtype and int32, convert from floats noting loss of decimals, and use rec dot format underscore parser for structured dtypes and mixed tuples.
Explore numpy data type information with finfo and iinfo to reveal the min and max values for float32 and int32.
Learn how numpy uses type name and type code to identify unicode, integers, booleans, strings, and complex numbers, and determine the minimum size type for mixed data.
Unlock NumPy's power with rounding, differencing, trigonometric, logarithmic, and rational tools, plus floating point accuracy, complex numbers, and fast min/max, all vectorized in one line of code.
Explore rational routines by computing lowest common multiple and greatest common divisor using example arrays. See how lcm yields the smallest common multiple and gcd finds the greatest common divisor.
Explore how NumPy handles complex numbers using angle, real, imag, and conjugate functions, including np.angle, np.real, np.imag, np.conj, and np.conjugate, and comparing with arc tan.
Discover extrema finding in numpy, using np.maximum for element-wise maxima and np.minimum for minima, and fmax or nanmax to handle missing values.
Explore numpy's miscellaneous operations, including convolution and convolution 2d with mode and padding, clip, sqrt, cbrt, square, absolute, sign, heaviside, nan_to_num, real_if_close, interpolate, and bitwise count.
Welcome! It is great to have you here. This hands-on course is your comprehensive guide to mastering NumPy, the foundational library for numerical computing in Python—essential for any data analyst, scientist, or backend engineer.
Whether you're preparing for a career in data analytics or strengthening your Python data skills, this course will walk you through NumPy method-by-method, directly aligned with the official documentation. With a clear, structured approach, you'll gain a deep understanding of NumPy arrays, broadcasting, linear algebra, datetime operations, string handling, logic functions, masked arrays, statistical methods, and more.
Every concept is taught through focused, practical lectures. After each lesson, you'll reinforce your learning with:
A short 3-question quiz to test core understanding
A 5-question hands-on exercise provided via Jupyter Notebook
The course wraps up with a set of real-world mini capstone projects from domains like e-commerce, manufacturing, healthcare, and social media—designed to build job confidence and demonstrate how NumPy powers real data solutions.
By the end of the course, you’ll be able to use NumPy confidently in data analysis pipelines, troubleshoot issues efficiently, and recognize when and how to use specific NumPy functions for performance and clarity.
Prerequisite:
A working knowledge of Python is required. This is not an introductory programming course.