
Michael DAndrea
Principal Data Scientist at Genentech
The AI for Healthcare program offers two courses that apply AI to 2D and 3D medical imaging data. The first course covers fundamental skills needed to work with 2D imaging data, such as extracting images from DICOM files, building AI models, and obtaining regulatory approval. The course project involves training a CNN to classify chest X-rays for the presence of pneumonia and writing an FDA validation plan. The second course covers 3D imaging data, including clinical fundamentals, imaging modalities, and common analysis tasks. It also explores how AI can be integrated into the clinical workflow. Both courses are designed to teach students how to derive clinically relevant insights from medical imaging data using AI.

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60 skills
4 prerequisites
Prior to enrolling, you should have the following knowledge:
You will also need to be able to communicate fluently and professionally in written and spoken English.
You are starting a challenging but rewarding journey! Take 5 minutes to read how to get help with projects and content.
In this lesson, you will be given an introduction to this course about AI for 2D medical imaging, why AI is important and where AI fits in the space.
In this lesson, we will cover clinical foundations such as clinical workflows, applications of 2D imaging in clinical settings and how machine learning impacts clinics.
In this lesson, we will learn the DICOM standard in medical imaging, and how to explore medical imaging data and prepare it for machine learning applications.
In this lesson, we'll dive deep into classification tasks for 2D medical imaging using different machine learning models. and we will talk about pre-process data, train, test, and validate models.
In this lesson, you will learn about how your work fits into the bigger picture, and how it’s regulated by the FDA, which is an often-overlooked, but incredibly important.
In this lesson, we will introduce the course and instructors. We will give you an overview of the context for AI in 3D medical imaging space, and cover the objectives of the course.
In this lesson, we cover the basic terminology and concepts related to 3D medical imaging. We will look at the problem space from a clinical standpoint and learn how CT and MR scanners produce images.
In this lesson, we will dive deeper into medical imaging formats NIFTI and DICOM, how scanner data is represented, and how to read medical volumes stored in these files and analyze them.
In this lesson, we cover the basics of building deep neural networks for 3D medical imaging (mostly segmentation & classification) and performance evaluation from a software and clinical perspective.
In this lesson, we'll talk about clinical networks, architecture, and AI deployment, tools and their use by data scientists and clinicians, as well as medical device regulation and data privacy.
In this project, you will curate a dataset of brain MRIs, train a segmentation on a CNN, and integrate this into a clinical network to quantify hippocampal volume for Alzheimer's progression.
With the transition to electronic health records (EHR) over the last decade, the amount of EHR data has increased exponentially, providing an incredible opportunity to unlock this data with AI to benefit the healthcare system. Learn the fundamental skills of working with EHR data in order to build and evaluate compliant, interpretable machine learning models that account for bias and uncertainty using cutting-edge libraries and tools including Tensorflow Probability, Aequitas, and Shapley. Understand the implications of key data privacy and security standards in healthcare. Apply industry code sets, transform datasets at different EHR data levels, and use Tensorflow to engineer features.
14 hoursThis lesson will provide you with an Introduction to the EHR Data course outline, content, as well as introduce you to your instructor.
In this lesson, you will learn about the importance of data security and the different standards that apply to EHR, as well as analyzing EHR data.
In this lesson you will learn how to work with different EHR codes and how to map them properly to records.
In this lesson, you'll gain skills in feature engineering and transformation of EHR.
In this final lesson, you'll be putting all of your skills together to build, evaluate and interpret ML models for Bias and Uncertainty.
In this project students will use what they learn in the classroom to apply AI in healthcare for patient data.
We’ll cover what wearables are and the scope of the class. Learn who your instructor is and his thoughts on the promise and caveats of wearables in medical research and decision making.
A brief tour through sampling theory, signal processing, the Fourier transform, and other related topics. We’ll briefly cover some plotting and visualization techniques here as well.
We cover the basics of the accelerometer, the PPG sensor, and the ECG sensor, as well as what these signals look like in typical environments and the types of noise that we will encounter.
Build an activity classifier using a wrist-worn accelerometer!
We deep dive into a fundamental algorithm for ECG processing and use that as the basis for an arrhythmia detection algorithm.
In this project, you will create a pulse rate algorithm that takes into account activity and apply this algorithm to a new data set to determine clinically significant features.
5 instructors
Unlike typical professors, our instructors come from Fortune 500 and Global 2000 companies and have demonstrated leadership and expertise in their professions:

Michael DAndrea
Principal Data Scientist at Genentech

Ivan Tarapov
Sr. Program Manager at Microsoft Research

Mazen Zawaideh
Radiologist

Nikhil Bikhchandani
Data Scientist at Verily Life Sciences

Emily Lindemer
Director of Data Science & Analytics at Wellframe

Michael DAndrea
Principal Data Scientist at Genentech

Ivan Tarapov
Sr. Program Manager at Microsoft Research

Mazen Zawaideh
Radiologist

Nikhil Bikhchandani
Data Scientist at Verily Life Sciences

Emily Lindemer
Director of Data Science & Analytics at Wellframe
5
— Hsin-Wen ChangI’m excited to share that I’ve graduated from the Udacity AI for Healthcare Nanodegree Program. Before joining this program, I had already spent a lot of time learning through Kaggle competitions. One challenge I often faced was seeing experienced Kagglers discuss topics like NIFTI, DICOM, hyperparameter tuning, and ensemble learning while I only had a partial understanding of them. I learned many things along the way through trial and error, and competition discussions, but I wanted a deeper and more solid foundation learn things around AI for Healthcare systems. That is exactly what this Nanodegree gave me. Through the AI for Healthcare Nanodegree Program, I was able to move beyond picking up techniques informally and instead understand the principles behind them. I learned how medical imaging formats such as NIFTI and DICOM store scanner data, how medical volumes are represented, and how to read, process, and prepare these files for machine learning applications. I also gained a much stronger understanding of clinical workflows, including DICOM networking, deployment considerations for AI systems in healthcare, and the tools used by both data scientists and clinicians in real-world settings. What made this program especially meaningful was that it did not stop at model building. It also emphasized the broader responsibilities involved in applying AI to healthcare: medical device regulation, FDA considerations, data privacy, data security, and the standards used in electronic health records. The perspective made the field feel much more real, because successful AI in healthcare must be technically strong, clinically aware, and ethically grounded. Learning about EHR analysis, signal processing, the Fourier transform, and ECG signal processing helped me appreciate that AI for healthcare is not just about training models — it is about understanding data, systems, safety, and clinical impact. It also reminded me that meaningful machine learning work often begins long before model training — with understanding the structure, noise, and behavior of the signal itself. This experience also reinforced something important for me: many of the lessons people struggle to piece together through repeated Kaggle failures can actually be learned in a structured and rigorous way. For anyone who wants to build strong foundations for healthcare AI — and even for those who want to become better Kaggle competitors in medical imaging and signal processing — this program, and through studying Chapter 19 of Artificial Intelligence: A Modern Approach by Stuart Russell and Peter Norvig, is an excellent path. What I appreciate most is that this Nanodegree transformed trial-and-error learning into a more solid understanding. It helped me see not only how to build models, but how to think more carefully about data, context, deployment, and impact. I’m deeply grateful to Instructor Emily Lindemer, Instructor Nikhil Bikhchandani, Instructor Mazen Zawaideh, Instructor Ivan Tarapov, and Instructor Michael D’Andrea for creating such outstanding course content. I also want to give special thanks to Raghda and Udit from Udacity Support for helping me resolve my doubts in the Test Your Algorithms workspace, which made it possible for me to graduate successfully. I’m thankful for everything I learned in this journey, and I’m excited to keep building at the intersection of AI, healthcare, and medical imaging.I’m excited to share that I’ve graduated from the Udacity AI for Healthcare Nanodegree Program. Before joining this program, I had already spent a lot of time learning through Kaggle competitions. One challenge I often faced was seeing experienced Kagglers discuss topics like NIFTI, DICOM, hyperparameter tuning, and ensemble learning while I only had a partial understanding of them. I learned many things along the way through trial and error, and competition discussions, but I wanted a deeper and more solid foundation learn things around AI for Healthcare systems. That is exactly what this Nanodegree gave me. Through the AI for Healthcare Nanodegree Program, I was able to move beyond picking up techniques informally and instead understand the principles behind them. I learned how medical imaging formats such as NIFTI and DICOM store scanner data, how medical volumes are represented, and how to read, process, and prepare these files for machine learning applications. I also gained a much stronger understanding of clinical workflows, including DICOM networking, deployment considerations for AI systems in healthcare, and the tools used by both data scientists and clinicians in real-world settings. What made this program especially meaningful was that it did not stop at model building. It also emphasized the broader responsibilities involved in applying AI to healthcare: medical device regulation, FDA considerations, data privacy, data security, and the standards used in electronic health records. The perspective made the field feel much more real, because successful AI in healthcare must be technically strong, clinically aware, and ethically grounded. Learning about EHR analysis, signal processing, the Fourier transform, and ECG signal processing helped me appreciate that AI for healthcare is not just about training models — it is about understanding data, systems, safety, and clinical impact. It also reminded me that meaningful machine learning work often begins long before model training — with understanding the structure, noise, and behavior of the signal itself. This experience also reinforced something important for me: many of the lessons people struggle to piece together through repeated Kaggle failures can actually be learned in a structured and rigorous way. For anyone who wants to build strong foundations for healthcare AI — and even for those who want to become better Kaggle competitors in medical imaging and signal processing — this program, and through studying Chapter 19 of Artificial Intelligence: A Modern Approach by Stuart Russell and Peter Norvig, is an excellent path. What I appreciate most is that this Nanodegree transformed trial-and-error learning into a more solid understanding. It helped me see not only how to build models, but how to think more carefully about data, context, deployment, and impact. I’m deeply grateful to Instructor Emily Lindemer, Instructor Nikhil Bikhchandani, Instructor Mazen Zawaideh, Instructor Ivan Tarapov, and Instructor Michael D’Andrea for creating such outstanding course content. I also want to give special thanks to Raghda and Udit from Udacity Support for helping me resolve my doubts in the Test Your Algorithms workspace, which made it possible for me to graduate successfully. I’m thankful for everything I learned in this journey, and I’m excited to keep building at the intersection of AI, healthcare, and medical imaging.
Aug 2, 2026

5
— Cristina Maria Pereira SoaresThe 'AI for Healthcare' program offers a crucial and timely exploration of how artificial intelligence is transforming the medical field.The 'AI for Healthcare' program offers a crucial and timely exploration of how artificial intelligence is transforming the medical field.
Aug 6, 2025

4
— German MirettiExcellent product, well-balanced between learning material and evaluation. The projects are amazing. They only need to improve the maintenance of the workspaces, which sometimes have package version conflicts.Excellent product, well-balanced between learning material and evaluation. The projects are amazing. They only need to improve the maintenance of the workspaces, which sometimes have package version conflicts.
Jul 30, 2025

5
— Chintamani M.so far AI for healthcare nanodegree program is going great for me . In the first topic ' Applying AI to 2D medical imaging data' i have learned valuable skills of applying deep learning to AI including Regulatory requirements understanding, FDA validation which has helped me to understand end to end process applied by getting to know its enough depth.so far AI for healthcare nanodegree program is going great for me . In the first topic ' Applying AI to 2D medical imaging data' i have learned valuable skills of applying deep learning to AI including Regulatory requirements understanding, FDA validation which has helped me to understand end to end process applied by getting to know its enough depth.
Dec 14, 2022

5
— Masinde M.It was greatIt was great
May 30, 2022

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