1.
To understand
Programming Language used for DS
Python,
R
Language
Go Language
Skala
Language
2.
To understand
software and Environments used for DS :
a.
Linux OS
b.
Windows OS
c.
Anaconda Navigator
d.
Conda
e.
Mini Conda
f.
Jupyter Notebook
3.
To understand Frame
works used for DS :
a.
TensorFlow
b.
Keras
c.
PyTorch and Torch
d.
Torch Vision
e.
Yolo
f.
OpenCV
g.
Computer Vision
4. To understand Libraries
used for DS :
a.
numpy
b.
pandas
c.
matplotlib
d.
scikit-learn
e.
seaborn
f.
pycuda
g.
cv2
h.
plotly
i.
torch
j.
pytorch
k.
TensorRt
l.
dmlc XHBoost
m.
CatBoost
5.
To understand
Mathematics used for DS :
a.
Linear Algebra –
Linear Equations, Matrixs, Vectors
b.
Calculus –
Differentiation, Integration, Gradient Descent,
c.
Statistics –
Population, Parameter, Sample, Variable, Probability
6.
To understand Data
Types used in for DS :
a.
CSV
b.
Images
c.
Mp3
d.
Mp4
e.
Pdf
f.
Structured data
g.
Semi Structured
data
h.
Unstructured data
i.
Binary Data
2. Languages and Software Environment Setup Installation
Experiments
1.
To install and configure Python
2.
To install and configure R
3.
To install and configure Jupyter Note
Book
4.
To install and Configure Google Colab
5.
To install and Configure Linux OS
6.
To install and Configure Windows OS
7.
To install and Configure Anaconda
Navigator
8.
To install and Configure Conda
9.
To install and Configure Mini Conda
10.
To install and Configure PyCharm
11.
To install and Configure Spyder
3. Mathematics used for DS:
1.
To understand Linear Algebra - Linear
Equations, Matrixs, Vectors
2.
To understand Calculus -
Differentiation, Integration, Gradient Descent,
3.
To understand Statistics - Population,
Parameter, Sample, Variable, Probability
4. Data Structures, Capture and Collection and
Data Analysis Experiments
A.
Pandas Library
1.
To install Pandas library
2.
To download sample workbook for Pandas
3.
To describing Data with Pandas
4.
To selecting and viewing Data with Pandas
5.
To manipulating Data with Pandas
6.
To practice Pandas exercise with
Assignments
B. Numpy Library
7.
To install Numpy library
8.
To download sample workbook for Numpy
9.
To understand Numpy Data Types and
Attributes
10.
To creating Numpy Arrays
11.
To exercise Numpy Random Seed
12.
To Viewing Arrays and Matrices
13.
To Manipulating Arrays
14.
To exercise Standard Deviation and
Variance
15.
To exercise Reshape and Transpose
16.
To understand Dot Product vs Element Wise
17.
To exercise Numpy with Nut Butter Store
Sales
18.
To comparison Operators in Numpy
19.
To Sorting Arrays
20.
To turn images into Numpy Arrays
21.
To exercise- Imposter Syndrome
22.
To exercise Numpy with assignment
23.
To view extra Numpy resources
5. Data Visualization Experiments
C.
Matplotlib Library
1.
To install Matplotlib and understand its
functions and uses
2.
To download sample workbook for
Matplotlib
3.
To Importing and using Matplotlib
4.
To understand Anatomy of a Matplotlib
Figure
5.
To exercise Scatter Plot and Bar Plot
using Matplotlib
6.
To exercise Histograms and Subplots using
Matplotlib
7.
Plotting From Pandas Data Frames
8.
Regular Expressions
9.
Customizing your Plots
10.
Saving and Sharing your Plots
6A. Machine Learning Theory and processing
Algorithms
1.
To understand
theory of Supervised
Learning
a.
Linear Regression
b.
Logistic
Regression
c.
Gradient Descent
d.
Decision Tree
e.
Random Forest
f.
Bagging & Boosting
g.
K Nearest
Neighbors – KNN
h.
Bayesian Linear
Regression
i.
Non-Linear
Regression
j.
Support Vector
Machine
2. To understand theory of Unsupervised Learning
a.
K-Means
b.
Hierarchal
Clustering
6A. Machine Learning Data Science Experiments – Data Handling,
Cleaning, Converting,
Modeling
D. Scikit-learn
Library
1.
To install Scikit-learn library
2.
To download sample workbook for Scikit-learn
3.
To understand Scikit-learn Data Types and
Attributes
4.
To understand typical Scikit-learn
workflow
5.
To exercise Scikit-learn
1.
Getting Your Data Ready : Splitting Your
Data, Clean, Transform, Reduce
2.
Getting Your Data Ready : Convert Data To
Numbers, Feature Scaling
3.
Getting Your Data Ready : Handling
Missing Values With Pandas
4.
Getting Your Data Ready : Handling
Missing Values With Scikit-learn
5.
Choosing the Right Model For Your Data -
Regression
6.
Data Decision Trees
7.
Understand ML Algorithms
8.
Choosing the Right Model For Your Data -
Classification
9.
Fitting a Model To The Data
10.
Making predictions With Our Model -
Regression
11.
Evaluating a Machine Learning Model -
Cross Validation
12.
Evaluating a Classification Model -
Accuracy
13.
Evaluating a Classification Model - ROC
Curve
14.
Reading Extension : ROC Curve + AUC
15.
Evaluating a Classification Model -
Confusion Matrix
16.
Evaluating a Classification Model -
Classification Report
17.
Evaluating a Regression Model - R2 Score
18.
Evaluating a Regression Model - MAE
19.
Evaluating a Regression Model – MSE
1.
Machine Learning Model Evaluation
2.
Evaluating a Model With Cross Validation
and Scoring Parameter
3.
Evaluating a Model With Scikit-learn
Functions
4.
Improving a Machine Learning Model
5.
Tuning Hyperparameters
6.
Metric Comparison Improvement
7.
Correlation Analysis
8.
Saving and Loading a Model
9.
Putting it all Together
10.
Scikit-Learn Practice
11.
Exploring Our Data
12.
Finding Patterns
13.
Preparing our Data for Machine Learning
14.
Choosing the Right Models
15.
Experimenting With Machine Learning
Models
16.
Tuning Hyper parameters
17.
Confusion Matrix Labels
18.
Evaluating Our Model
19.
Framework Setup
20.
Exploring Our Data
21.
Feature Engineering
22.
Turning Data into Numbers
23.
Filling Missing Numerical Values
24.
Filling Missing Categorical Values
25.
Fitting a Machine Learning Model
26.
Splitting Data
27.
Custom Evaluation Function
28.
Reducing Data
29.
Randomized SearchCV
30.
Improving Hyperparameters
31.
Preprocessing Our Data
32.
Making Predictions
33.
Feature Importance
6B. Deep Learning - DL - Data Science Experiments
E. TensorFlow Framework - Library
1.
Starting Deep Learning project for unstructured data
2.
Setting up with Google
3.
Setting up Google Colab
4.
Google Colab workspace
5.
Uploading project data
6.
Setting up our data
7.
Importing TensorFlow
8.
Using a GPU in a computer
9.
Using GPU on Google Colab
10.
Loading our data labels
11.
Preparing the images
12.
Turning data labels into numbers
13.
Creating our own validation set
14.
Preprocess images
15.
Turning data into batches
16.
Visualizing our data
17.
Preparing our inputs and outputs
18.
Building a deep learning model
19.
Summarizing our model
20.
Evaluating our model
21.
Preventing Overfitting
22.
Training your Deep Neural Network
23.
Evaluating performance with tensorboard
24.
Make and transform predictions
25.
Transform predictions to text
26.
Visualizing model predictions
27.
Saving and loading a trained model
28.
Training model on full dataset
29.
Making predictions on test images
30.
Submitting model to Kaggle
31.
Finishing your Deep Learning Project
7. Database Servers – Data storing and using
B. Hadoop
Training
Making
sense of big data is a challenge for just about every
organization in the world today, which is why Hadoop has become
so popular.
Hadoop is
an open-source framework developed by Java intended to store and
manage a large amount of data. It allows multiple coexisting
tasks to run from single to thousands of servers without any
obstruction. It also consists of a distributed file system that
allows transferring data and files in split seconds between
different nodes and it’s able to process efficiently even if a
node fails.
The base
Hadoop framework is composed of the following modules:
-
Hadoop Common – This contains libraries and utilities needed
by other Hadoop modules.
-
Hadoop Distributed File System (HDFS) – A distributed
file-system that stores data on commodity machines,
providing very high aggregate bandwidth across the cluster.
-
Hadoop YARN – A platform responsible for managing computing
resources in clusters and using them for scheduling users’
applications. YARN was introduced in 2012.
-
Hadoop MapReduce — An implementation of the MapReduce
programming model for large-scale data processing.
In
essence, there are many other components in the Hadoop family
that support the processing of Big Data. All these components
together solves the majority of the problems of storage and
speedy processing in the big data world.
For
example, it took 10 year to process the information of Human
Genome. With the help of Hadoop, it is now possible to process a
project of this magnitude in just one week.
The
benefits of Hadoop are considerable, including its range of data
sources.
Speed
also is a big part of Hadoop’s appeal. Organizations are
discovering that they can get work done faster with Hadoop,
which uses a storage system wherein the data is stored on a
distributed file system
One of
the biggest advantages of using Hadoop is that it’s cost
effective.
Industries also find Hadoop beneficial because:
From a
job perspective, Hadoop is the most popular and in demand big
data tool. Anyone currently working in the data science field or
plans to be, needs to understand Hadoop.
Hadoop
Training Course by Us
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