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Jones Granatyr, Gabriel Alves, and AI Expert Academy

Data science and machine learning represent the largest computational sectors in the world, where modest improvements in the accuracy of analytical models can translate into billions of impact on the bottom line. Data scientists are constantly striving to train, evaluate, iterate, and optimize models to achieve highly accurate results and exceptional performance. With NVIDIA's powerful RAPIDS platform, what used to take days can now be accomplished in a matter of minutes, making the construction and deployment of high-value models easier and more agile. In data science, additional computational power means faster and more effective insights. RAPIDS harnesses the power of

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Data science and machine learning represent the largest computational sectors in the world, where modest improvements in the accuracy of analytical models can translate into billions of impact on the bottom line. Data scientists are constantly striving to train, evaluate, iterate, and optimize models to achieve highly accurate results and exceptional performance. With NVIDIA's powerful RAPIDS platform, what used to take days can now be accomplished in a matter of minutes, making the construction and deployment of high-value models easier and more agile. In data science, additional computational power means faster and more effective insights. RAPIDS harnesses the power of

In this course, you will learn everything you need to take your machine learning applications to the next level. Check out some of the topics that will be covered below:

  • Utilizing the cuDF, cuPy, and cuML libraries instead of Pandas, Numpy, and scikit-learn; ensuring that data is processed and machine learning algorithms are executed with high performance on the GPU.

  • Comparing the performance of classic Python libraries with RAPIDS. In some experiments conducted during the classes, we achieved acceleration rates exceeding 900x. This indicates that with certain databases and algorithms, RAPIDS can be 900 times faster.

  • Creating a complete, step-by-step machine learning project using RAPIDS, from data loading to predictions.

  • Using DASK for task parallelism on multiple GPUs or CPUs; integrated with RAPIDS for superior performance.

Throughout the course, we will use the Python programming language and the online Google Colab. This way, you don't need to have a local GPU to follow the classes, as we will use the free hardware provided by Google.

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What's inside

Learning objectives

  • Understand the differences between processing data using cpu and gpu
  • Use cudf as a replacement for pandas for gpu-accelerated processing
  • Implement codes using cudf to manipulate dataframes
  • Use cupy as a replacement for numpy for gpu-accelerated processing
  • Use cuml as a replacement for scikit-learn for gpu-accelerated processing
  • Implement a complete machine learning project using cudf and cuml
  • Compare the performance of classic python libraries that run on the cpu with rapids libraries that run on the gpu
  • Implement projects with dask for parallel and distributed processing
  • Integrate dask with cudf and cuml for gpu performance

Syllabus

Introduction
Course content
CPU vs GPU
GPU and CUDA
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RAPIDS
Course materials
cuDF
cuDF - intuition
Installation
Pandas and cuDF
Basic commands 1
Basic commands 2
Basic commands 3
Basic commands 4
Integration with cuPy
Other data convertions
User defined functions 1
User defined functions 2
User defined functions 3
Performance comparison 1
Performance comparison 2
Performance comparison 3
cuML
cuML - intution
Preparing the environment
Regression with scikit-learn
Regression with cuML
Ridge regression
Parameter tuning
Complete project
Installations and libraries
Census dataset
Categorical features 1
Categorical features 2
Additional pre-processing
Logistic regression and kNN
Random Forest and SVM
HOMEWORK
Homework solution 1
Homework solution 2
DASK
DASK - intuition
Creating a local cluster
Arrays in distributed GPUs
DASK and cuDF
DASK and cuML 1
DASK and cuML 2
Final remarks
BONUS

Good to know

Know what's good
, what to watch for
, and possible dealbreakers
Explores data science and machine learning, which are the largest computational sectors in the world
Develops in-demand skills, such as building and deploying high-value models
Taught by subject matter experts Jones Granatyr and Gabriel Alves from AI Expert Academy
Provides step-by-step guidance through a complete machine learning project using RAPIDS
Course materials are mostly delivered through Google Colab, which provides learners with free access to Google hardware and eliminates the need for a local GPU

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Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in AI Application Boost with NVIDIA RAPIDS Acceleration with these activities:
Review basic Python programming concepts
Refresh your memory on Python syntax and core concepts to prepare for learning data science and machine learning techniques using RAPIDS.
Browse courses on Python Programming
Show steps
  • Review Python syntax and data types
  • Practice basic operations using Python
CUDA basics
Make sure you're familiar with the fundamentals of CUDA before starting this course.
Browse courses on CUDA
Show steps
  • Implement a parallel for loop
  • Implement a kernel
  • Implement a reduction
DASK - getting started
This will help you ensure that you've set up DASK correctly and avoid common pitfalls in your own projects.
Browse courses on Dask
Show steps
  • Install DASK
  • Run the DASK hello world
  • Implement a simple DASK pipeline
Three other activities
Expand to see all activities and additional details
Show all six activities
Attend a RAPIDS meetup
This is a great way to connect with other people who are using RAPIDS and learn from their experiences.
Browse courses on Networking
Show steps
  • Find a RAPIDS meetup in your area
  • Attend the meetup
  • Talk to other people who are using RAPIDS
Contribute to the RAPIDS open source community
This is a great way to give back to the community and make a difference in the world.
Browse courses on Volunteering
Show steps
  • Find a RAPIDS project that you're interested in contributing to
  • Create a pull request with your changes
  • Get your pull request reviewed and merged
Machine learning project with RAPIDS
This will give you a chance to apply what you've learned in the course to a real-world problem.
Browse courses on Machine Learning
Show steps
  • Choose a dataset
  • Preprocess the data
  • Build a machine learning model
  • Evaluate the model

Career center

Learners who complete AI Application Boost with NVIDIA RAPIDS Acceleration will develop knowledge and skills that may be useful to these careers:
Data Scientist
Data Scientists use their knowledge of data science and machine learning to solve business problems. They work with data to build models that can predict outcomes, identify trends, and make recommendations. Many Data Scientists work on projects such as fraud detection, customer churn prediction, sentiment analysis, and image recognition. This course is likely to be helpful to Data Scientists because it covers topics such as GPU-accelerated processing and parallel and distributed processing.
Data Architect
Data Architects design and build the data infrastructure that supports data science and machine learning initiatives. They work with other stakeholders to ensure that data is accessible, reliable, and secure. This course could be particularly helpful to Data Architects who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Machine Learning Researcher
Machine Learning Researchers develop new machine learning algorithms and techniques. They work with other researchers and engineers to develop new products and applications. This course could be particularly helpful to Machine Learning Researchers who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Artificial Intelligence Researcher
Artificial Intelligence Researchers develop new artificial intelligence algorithms and techniques. They work with other researchers and engineers to develop new products and applications. This course could be particularly helpful to Artificial Intelligence Researchers who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Machine Learning Engineer
Machine Learning Engineers are responsible for designing, building, and deploying machine learning models. They work closely with data scientists and other stakeholders to ensure that models meet business needs. This course could be particularly helpful to Machine Learning Engineers because it provides hands-on experience with GPU-accelerated machine learning libraries such as cuDF and cuML.
Business Analyst
Business Analysts help businesses improve their performance by analyzing data and identifying opportunities for improvement. They work with other stakeholders to develop and implement solutions that meet business needs. This course could be particularly helpful to Business Analysts who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Postdoctoral Researcher
Postdoctoral Researchers conduct research under the supervision of a senior scientist. They work on a variety of projects, including developing new theories and technologies. This course could be particularly helpful to Postdoctoral Researchers who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Operations Research Analyst
Operations Research Analysts use mathematical and analytical methods to help businesses make better decisions. They work on projects such as supply chain optimization, logistics planning, and risk management. This course could be particularly helpful to Operations Research Analysts who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Statistician
Statisticians collect, analyze, and interpret data. They use statistical methods to draw conclusions about populations and make predictions. This course could be particularly helpful to Statisticians who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Quantitative Analyst
Quantitative Analysts use mathematical and statistical methods to analyze financial data and make investment decisions. They work with other analysts and portfolio managers to develop and implement investment strategies. This course could be particularly helpful to Quantitative Analysts who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Research Scientist
Research Scientists conduct research in a variety of fields, including computer science, engineering, and medicine. They work with other scientists to develop new theories and technologies. This course could be particularly helpful to Research Scientists who are interested in using GPU-accelerated processing to improve the efficiency of their work.
Data Engineer
Data Engineers build, maintain, and manage the infrastructure that supports data science and machine learning initiatives. They help ensure that data is accessible, reliable, and secure. Many Data Engineers also work to automate processes and improve efficiency. This course is likely to be helpful to Data Engineers because it covers topics such as GPU-accelerated processing and DASK for task parallelism.
Data Analyst
Data Analysts leverage their knowledge of data science and machine learning to help businesses make critical decisions about technology, products, and services. Much of the work consists of interpreting large amounts of data and communicating technical insights to non-technical stakeholders. This course could be particularly helpful to Data Analysts because it focuses on accelerating the machine learning process using tools such as cuDF and cuML.
Computer Programmer
Computer Programmers write and maintain the code that makes software and applications function. They work with other engineers and designers to develop new features and fix bugs. This course could be particularly helpful to Computer Programmers who are interested in developing high-performance computing applications.
Software Engineer
Software Engineers design, develop, and maintain software applications. They work with other engineers, product managers, and designers to turn ideas into working products. This course could be particularly helpful to Software Engineers who are interested in developing high-performance computing applications.

Reading list

We've selected 11 books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in AI Application Boost with NVIDIA RAPIDS Acceleration.
Comprehensively covers the fundamentals of machine learning using Python and popular libraries like Scikit-Learn, Keras, and TensorFlow. It provides a solid foundation for understanding the concepts and techniques used in the course, particularly in the context of supervised and unsupervised learning.
Provides an in-depth understanding of CUDA programming, the parallel computing platform used by NVIDIA GPUs. It covers topics such as thread hierarchy, memory management, and optimization techniques, which are essential for maximizing the performance of code running on GPUs in the context of the course.
Introduces the Pandas library, which is used extensively in the course for data manipulation and analysis. It provides a comprehensive overview of Pandas' features, including data structures, indexing, and operations, which will enhance the understanding of data handling techniques used in the course.
Offers a comprehensive guide to optimizing Python code for performance. It covers topics such as profiling, memory management, and concurrency, which can be helpful for improving the efficiency of code used in the course and beyond.
Provides a comprehensive overview of machine learning using Python. It covers a wide range of topics, including data preprocessing, feature engineering, model selection, and evaluation, which can serve as a valuable reference for those seeking further understanding of the concepts introduced in the course.
Provides a comprehensive overview of machine learning using R, another popular programming language for data science and machine learning. It covers a wide range of topics, including data preprocessing, feature engineering, model selection, and evaluation, which can serve as a valuable reference for those seeking to learn or expand their knowledge of machine learning in R.
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Introduces Dask, a parallel computing framework used for handling large-scale data processing and analysis. It covers topics such as distributed scheduling, task parallelism, and data partitioning, which are relevant for scaling up machine learning pipelines in the course.
Presents a practical approach to machine learning, focusing on real-world applications and case studies. It covers a wide range of topics, including data preprocessing, feature engineering, model selection, and evaluation, providing additional insights for those looking to apply machine learning techniques in practice.
Offers advanced topics in machine learning, such as ensemble methods, natural language processing, and time series analysis. It provides additional depth and breadth for those looking to expand their knowledge and skills in machine learning beyond the scope of the course.
Comprehensive reference for deep learning, providing a theoretical and practical foundation for the field. It offers a comprehensive overview of deep learning architectures, algorithms, and applications, which can serve as a valuable resource for those interested in gaining a deeper understanding of the subject.
Provides a comprehensive introduction to deep learning, a subfield of machine learning that has gained prominence in recent years. It covers fundamental concepts, architectures, and applications of deep learning models, offering additional insights beyond the scope of the course.

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