
This course includes our updated coding exercises so you can practice your skills as you learn.
See a demo
Explore how neural networks learn from training data to recognize handwriting and images, starting with perception and sigmoid neurons, then training with forward and backward propagation in Python.
Install Python and Anaconda distribution to set up a data science environment; download the Anaconda distribution, install Python 3.7, choose your operating system, run the installer, and confirm internet connectivity.
Celebrate reaching this milestone as you join the top 50% of learners and explore playback, subtitles, offline download, Q&A, AI assistant, rating tips, and your certificate.
Open and launch the Jupyter notebook using Anaconda Navigator, Anaconda Prompt, or Command Prompt, then locate and open ipynb notebooks in your default directory.
Explore how to create a new Jupyter notebook with Python 3, run code in cells, and use markdown and raw formats to write readable comments, headings, and bullet lists.
Learn to use Jupyter cells: switch between editable and non-editable modes, recognize blue and green borders, switch between code and markdown with shortcuts (m, vi), and insert or delete cells.
Learn Python basics by performing arithmetic operations: addition, subtraction, multiplication, division, exponent, and modulus. The lesson covers operator precedence with parentheses, variable assignment, augmented (automatic) operators, and comparison operators.
Explore strings in Python basics, learning how to pass strings with quotes, assign variables, print results, and format output using format, plus length, replace, indexing, and slicing.
Explore lists in Python, where each element can be any type and lists are defined with square brackets. Practice indexing, printing, slicing (start, stop, step), and nesting lists within lists.
Learn to create and manipulate Python lists using range, start, stop, and step; sort with reverse, append, insert, and slice; and remove or delete elements with help.
Explore tuples and dictionaries in Python, noting that tuples are immutable and defined with parentheses, while lists use a square record and dictionaries use curly braces for key-value pairs.
Cover numpy basics for numerical computing: create arrays and matrices from lists, explore shapes and dtypes, perform indexing and slicing, and generate random numbers with arange, linspace, zeros, ones, diag.
Learn to manipulate data with the pandas library in Python, import CSV data into data frames, and navigate with index, iloc, and loc for precise data selection.
Explore the seaborn Python library by loading the iris dataset, inspecting its five features across 150 rows, describing statistics, and visualizing with scatter plots, distributions, and a pairplot.
Install and set up R and R Studio on your system, including downloading from the R project site, choosing the right installer, and using R Studio for streamlined scripting.
Master basics of r and r studio: run commands with control enter, use comments, assign variables with <-, and build vectors with c or 1:10; list and clear the workspace.
Learn how to install, load, and manage packages in R, including inbuilt and external packages, and visualize data with the DG plot package.
learn to use the R data set package to access inbuilt data, inspect the iris dataset with five variables and 150 observations, and load it into your workspace for analysis.
Learn manual data entry in ANN workflows: assign values to variables, use the concatenation operator, generate a five to fifty sequence with the sequence function, and input numbers with scan.
Import data from tab-delimited text and comma-separated csv files into the workspace, specify file paths, headers, and delimiters, and inspect resulting data frames.
Learn to compute region frequency distributions and create barplots in R, customizing color, orientation, borders, and titles, then export the chart as PNG.
Learn to create histograms in R to visualize age distributions using breaks for bin control and frequency. Export the chart as an image for presentations.
View perceptrons as binary input neurons with weights and a threshold, producing 0 or 1 output after summing products; illustrated by choosing shirts based on color, sleeve, and fabric.
Extend the perception from binary to real-valued inputs with bias by replacing the step activation with a sigmoid (logistic) function, yielding outputs between 0 and 1.
Learn to build a simple perceptron classifier in Python with scikit-learn using iris data, selecting two features, training, predicting, and evaluating accuracy, then inspect coefficients and intercept.
Explore basic terminologies of artificial neural networks, including neurons, parallel and sequential stacking, feed-forward and fully connected architectures, single and multiple outputs, and the transition to deep learning.
Explore how neural networks learn through gradient descent, using sigmoid neurons, forward and backward propagation, and iterative weight and bias updates to minimize error.
Explore how gradient descent minimizes cross-entropy loss through forward and backward propagation, updating weights and biases with a learning rate to train accurate classifiers.
Explore activation functions like sigmoid, tanh, and identified linear unit, and explain why they bound outputs and enable nonlinear patterns; cover softmax for multiclass and gradient descent variants, including epochs.
Explore how to set classification and regression hyperparameters in neural networks using Keras, including input neurons, hidden layers, activation functions, and loss functions like cross entropy and mean squared error.
Explore Keras as a high-level deep learning framework to define and train models, while leveraging backends like TensorFlow and other libraries; learn to install Keras with its TensorFlow backend.
Install and activate the keras and tensorflow backends in R, using the CPU-based setup, then prepare to load and split the dataset into training and testing data.
Load the fashion eminence database from keras, train a model on 60k training and 10k test images, each 28 by 28 grayscale, to classify into 10 fashion categories.
Normalize image pixel intensities by dividing by 255 to scale 0-255 to 0-1, using floating outputs. Split data into validation, training, and test sets to assess model performance.
Import the fashion dataset, already split into 60,000 training and 10,000 test images; normalize 28 by 28 grayscale pixel values by 255 for model training.
Learn to build ann models with Keras in Python and R using the sequential API for simple dense networks and the functional API for complex architectures.
Build a sequential keras network with 784-inputs (28×28), two hidden layers (300 and 100) with relu, a softmax 10-class output, seed 242 for reproducibility, random weights, and zero biases.
Compile and train the neural network using sparse categorical cross-entropy loss, an optimizer, and accuracy metrics, monitor training and validation loss and accuracy, and consider class weights for imbalance.
Evaluate model performance on a test set with Keras using the evaluate method to obtain loss and accuracy, then predict class probabilities and labels for new unseen data.
You're looking for a complete Course on Deep Learning using Keras and Tensorflow that teaches you everything you need to create a Neural Network model in Python and R, right?
You've found the right Neural Networks course!
After completing this course you will be able to:
Identify the business problem which can be solved using Neural network Models.
Have a clear understanding of Advanced Neural network concepts such as Gradient Descent, forward and Backward Propagation etc.
Create Neural network models in Python and R using Keras and Tensorflow libraries and analyze their results.
Confidently practice, discuss and understand Deep Learning concepts
How this course will help you?
A Verifiable Certificate of Completion is presented to all students who undertake this Neural networks course.
If you are a business Analyst or an executive, or a student who wants to learn and apply Deep learning in Real world problems of business, this course will give you a solid base for that by teaching you some of the most advanced concepts of Neural networks and their implementation in Python without getting too Mathematical.
Why should you choose this course?
This course covers all the steps that one should take to create a predictive model using Neural Networks.
Most courses only focus on teaching how to run the analysis but we believe that having a strong theoretical understanding of the concepts enables us to create a good model . And after running the analysis, one should be able to judge how good the model is and interpret the results to actually be able to help the business.
What makes us qualified to teach you?
The course is taught by Abhishek and Pukhraj. As managers in Global Analytics Consulting firm, we have helped businesses solve their business problem using Deep learning techniques and we have used our experience to include the practical aspects of data analysis in this course
We are also the creators of some of the most popular online courses - with over 250,000 enrollments and thousands of 5-star reviews like these ones:
This is very good, i love the fact the all explanation given can be understood by a layman - Joshua
Thank you Author for this wonderful course. You are the best and this course is worth any price. - Daisy
Our Promise
Teaching our students is our job and we are committed to it. If you have any questions about the course content, practice sheet or anything related to any topic, you can always post a question in the course or send us a direct message.
Download Practice files, take Practice test, and complete Assignments
With each lecture, there are class notes attached for you to follow along. You can also take practice test to check your understanding of concepts. There is a final practical assignment for you to practically implement your learning.
What is covered in this course?
This course teaches you all the steps of creating a Neural network based model i.e. a Deep Learning model, to solve business problems.
Below are the course contents of this course on ANN:
Part 1 - Python and R basics
This part gets you started with Python.
This part will help you set up the python and Jupyter environment on your system and it'll teach you how to perform some basic operations in Python. We will understand the importance of different libraries such as Numpy, Pandas & Seaborn.
Part 2 - Theoretical Concepts
This part will give you a solid understanding of concepts involved in Neural Networks.
In this section you will learn about the single cells or Perceptrons and how Perceptrons are stacked to create a network architecture. Once architecture is set, we understand the Gradient descent algorithm to find the minima of a function and learn how this is used to optimize our network model.
Part 3 - Creating Regression and Classification ANN model in Python and R
In this part you will learn how to create ANN models in Python.
We will start this section by creating an ANN model using Sequential API to solve a classification problem. We learn how to define network architecture, configure the model and train the model. Then we evaluate the performance of our trained model and use it to predict on new data. We also solve a regression problem in which we try to predict house prices in a location. We will also cover how to create complex ANN architectures using functional API. Lastly we learn how to save and restore models.
We also understand the importance of libraries such as Keras and TensorFlow in this part.
Part 4 - Data Preprocessing
In this part you will learn what actions you need to take to prepare Data for the analysis, these steps are very important for creating a meaningful.
In this section, we will start with the basic theory of decision tree then we cover data pre-processing topics like missing value imputation, variable transformation and Test-Train split.
By the end of this course, your confidence in creating a Neural Network model in Python will soar. You'll have a thorough understanding of how to use ANN to create predictive models and solve business problems.
Go ahead and click the enroll button, and I'll see you in lesson 1!
Cheers
Start-Tech Academy
------------
Below are some popular FAQs of students who want to start their Deep learning journey-
Why use Python for Deep Learning?
Understanding Python is one of the valuable skills needed for a career in Deep Learning.
Though it hasn’t always been, Python is the programming language of choice for data science. Here’s a brief history:
In 2016, it overtook R on Kaggle, the premier platform for data science competitions.
In 2017, it overtook R on KDNuggets’s annual poll of data scientists’ most used tools.
In 2018, 66% of data scientists reported using Python daily, making it the number one tool for analytics professionals.
Deep Learning experts expect this trend to continue with increasing development in the Python ecosystem. And while your journey to learn Python programming may be just beginning, it’s nice to know that employment opportunities are abundant (and growing) as well.
What is the difference between Data Mining, Machine Learning, and Deep Learning?
Put simply, machine learning and data mining use the same algorithms and techniques as data mining, except the kinds of predictions vary. While data mining discovers previously unknown patterns and knowledge, machine learning reproduces known patterns and knowledge—and further automatically applies that information to data, decision-making, and actions.
Deep learning, on the other hand, uses advanced computing power and special types of neural networks and applies them to large amounts of data to learn, understand, and identify complicated patterns. Automatic language translation and medical diagnoses are examples of deep learning.