We may earn an affiliate commission when you visit our partners.
Course image
Sarah Ostadabbas
Enroll now

What's inside

Syllabus

1 - Introduction to Machine Learning with Small Data
In this module, we will explore the pivotal role of data as the foundation for machine learning algorithms. We begin by discussing the significance of large datasets in training deep learning models as these datasets are crucial for the models’ successful application and effectiveness. We will also delve into the challenges associated with small datasets, particularly in sensitive fields such as healthcare and defense, where data acquisition is often difficult, costly, or subject to stringent privacy and security regulations. To address these challenges, the course will introduce various strategies for making the most of limited data, including data-efficient machine learning techniques and the use of synthetic data augmentation. Additionally, we will present the course structure and discuss a curated selection of research papers that align with and enrich our course topics.
Read more

Save this course

Create your own learning path. Save this course to your list so you can find it easily later.
Save

Career center

Learners who complete Machine Learning with Small Data Part 1 will develop knowledge and skills that may be useful to these careers:
Machine Learning Engineer
A Machine Learning Engineer designs, builds, and deploys predictive models and intelligent systems. The course's emphasis on Machine Learning with Small Data provides crucial expertise for this role, as real-world applications frequently involve deploying models where vast, perfectly labeled datasets are unavailable due to cost, privacy, or inherent scarcity. By mastering techniques like transfer learning, domain adaptation, and various forms of weak supervision, individuals are prepared to develop robust, efficient, and deployable ML solutions that perform well even with limited training data, a critical skill for success in diverse industry sectors. This course helps build a foundation in practical data efficiency.
Applied Scientist
An Applied Scientist identifies, researches, and develops cutting-edge Machine Learning with Small Data solutions for complex, often unsolved problems. This role frequently grapples with domain-specific challenges where data collection is expensive, privacy-sensitive, or inherently limited. The course's deep dive into advanced techniques such as transfer learning, domain adaptation, weak supervision, and few-shot learning directly equips individuals to innovate and adapt state-of-the-art methods to real-world constraints. This rigorous training makes learners highly effective in developing robust AI systems under challenging data conditions. This role typically requires an advanced degree.
Research Scientist: Machine Learning
A Research Scientist Machine Learning explores and develops novel algorithms and methodologies, pushing the boundaries of what's possible in challenging data environments. The course provides a strong theoretical foundation in formal learning theory, scaling laws, and advanced techniques like Zero-Shot and Few-Shot Learning, discussing curated research papers that prepare individuals to contribute to cutting-edge research. This expertise in Machine Learning with Small Data is crucial for designing innovative solutions where data scarcity is a primary concern, such as in highly specialized scientific or industrial applications. This role often requires an advanced degree.
Autonomous Driving Engineer
An Autonomous Driving Engineer develops the perception, planning, and control systems for self-driving vehicles. While these systems generate vast amounts of raw data, obtaining finely labeled data for safety-critical edge cases, rare events, or new environments is incredibly challenging and expensive. The course's emphasis on domain adaptation, weak supervision, and data augmentation, especially through data-driven and physics-based simulations, is directly applicable. These skills are vital for training robust models for rare scenarios and handling domain shifts from simulation to real-world deployment, critical for an Autonomous Driving Engineer.
Machine Learning Consultant
A Machine Learning Consultant advises organizations on how to leverage machine learning to solve critical business problems and achieve strategic goals. Many clients operate in industries where data is proprietary, highly sensitive, or simply too expensive to collect in large quantities. This course’s in-depth coverage of Machine Learning with Small Data techniques, including transfer learning, weak supervision, and domain adaptation, perfectly equips a consultant to provide expert guidance. It enables them to design effective ML strategies for clients facing significant data scarcity challenges across various sectors, ensuring practical and impactful solutions.
Natural Language Processing Engineer
A Natural Language Processing Engineer develops systems that allow computers to understand, process, and generate human language. In many specialized NLP domains, such as legal technology, customer support, or certain scientific research, large labeled datasets for specific tasks are scarce or costly to acquire. The course's exploration of Few-Shot Learning, Zero-Shot Learning, transfer learning, and weak supervision provides crucial strategies for developing high-performing NLP models under severe data constraints. This enables effective language understanding and generation even with limited examples, making it a vital skill for an NLP Engineer.
Computer Vision Engineer
A Computer Vision Engineer designs and implements systems that interpret and understand visual data. Many real-world computer vision applications, especially in specialized fields like medical imaging, robotics, or defense, often face the significant challenge of small or sensitive labeled datasets. The course's modules on Few-Shot Learning, Zero-Shot Learning, transfer learning, and synthetic data augmentation are directly applicable to building robust computer vision models that can generalize effectively. This training helps in developing high-performing visual intelligence systems even when extensive training data is unavailable, a key advantage for a Computer Vision Engineer.
Defense Systems Artificial Intelligence Engineer
A Defense Systems Artificial Intelligence Engineer applies AI and machine learning to develop advanced capabilities for national security and military applications. This domain frequently involves highly sensitive, proprietary, and critically scarce datasets due to operational constraints, security protocols, and high costs. The course’s deep dive into Machine Learning with Small Data, including weak supervision, formal learning theory, and domain adaptation, is exceptionally relevant for building robust and reliable AI systems in these critical, data-constrained environments, ensuring effective decision-making and operational advantage. This expertise is vital for a Defense Systems Artificial Intelligence Engineer.
Medical Imaging Engineer
A Medical Imaging Engineer develops algorithms and systems for analyzing medical images, a field where labeled data is notoriously scarce, expensive to acquire, and subject to strict privacy regulations. The course directly addresses these persistent challenges through its focus on Machine Learning with Small Data, including transfer learning, few-shot learning, and synthetic data augmentation. These advanced techniques are critical for building effective diagnostic and prognostic tools in healthcare, enabling robust model performance even with limited patient data. This makes the course highly relevant for a Medical Imaging Engineer.
Bioinformatics Scientist
A Bioinformatics Scientist analyzes complex biological and biomedical data, often dealing with inherently small, high-dimensional datasets from experiments or clinical trials. The course's focus on Machine Learning with Small Data techniques, such as transfer learning, few-shot learning, and effective data augmentation using simulations, is directly applicable to developing robust predictive and analytical models with limited genomic, proteomic, or biomedical imaging data. This expertise is crucial for making significant discoveries and advancements in life sciences. This role often requires an advanced degree.
Data Scientist
A Data Scientist extracts insights and builds predictive models from complex datasets to inform decision-making. While often working with large data, Data Scientists frequently encounter scenarios where specific target events or sensitive categories have very few labeled examples. The course's rigorous examination of techniques like weak supervision, domain adaptation, and transfer learning is highly relevant for a Data Scientist to build accurate and generalizable models. This is particularly true in fields like fraud detection, rare disease prediction, or targeted marketing where data scarcity for critical events is a primary concern, enhancing a data scientist's ability to deliver value.
Fraud Detection Machine Learning Specialist
A Fraud Detection Machine Learning Specialist develops models to identify fraudulent activities, a task often characterized by extremely imbalanced datasets where true fraud instances are rare and thus represent a small data problem. This scarcity of positive examples makes the course's strategies for Machine Learning with Small Data, such as weak supervision, active learning, and transfer learning, highly applicable. These techniques may be useful for building accurate and sensitive detection systems even when true fraud events are few and far between, enhancing a specialist's ability to combat sophisticated financial crime.
Edge Artificial Intelligence Engineer
An Edge Artificial Intelligence Engineer designs and deploys machine learning models to run efficiently on resource-constrained devices at the network's edge. These environments often have limited computational power and limited access to large training datasets, making data-efficient ML techniques crucial. The course's focus on Machine Learning with Small Data, including strategies for generalization from limited examples and model capacity considerations, may be useful. This training helps in developing compact, effective models suitable for edge deployments, where optimizing performance with minimal data resources is a key challenge for an Edge Artificial Intelligence Engineer.
Generative Artificial Intelligence Developer
A Generative Artificial Intelligence Developer designs and implements models that create new data, such as images, text, or audio, often to augment existing datasets or enable novel applications. The course explicitly mentions the use of generative models like GANs and VAEs to enhance Zero-Shot Learning by synthesizing unseen class data, tackling a core small data problem. This expertise in generating synthetic data, especially for augmentation in small data contexts, may be useful for a Generative Artificial Intelligence Developer. It enables the creation of diverse and representative datasets, which can extend the capabilities of traditional learning methods.
Bayesian Machine Learning Engineer
A Bayesian Machine Learning Engineer applies probabilistic modeling to machine learning, often excelling in scenarios with limited data by explicitly quantifying uncertainty and making robust predictions. The course explicitly includes Bayesian deep learning as a technique for improving training efficiency under weak supervision, a common small data challenge. This direct coverage makes the course highly relevant for individuals aiming to leverage Bayesian methods to build robust, uncertainty-aware models, particularly when working with small or noisy datasets. This knowledge may be useful for a Bayesian Machine Learning Engineer to develop more reliable and interpretable AI systems.

Reading list

We've selected 50 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 Machine Learning with Small Data Part 1.
The definitive mathematical canon of modern deep learning, establishing foundational theory across numerical computation, backpropagation optimization, autoencoders, and generative modeling.
The premier applied machine learning masterwork, taking practitioners through intuitive concept breakdowns, production-grade Scikit-Learn workflows, and deep neural architecture implementations.
A timeless mathematical masterpiece that provides an uncompromising Bayesian and probabilistic foundation for linear classifiers, graphical models, kernel methods, and sampling algorithms.
The definitive mathematical and theoretical canon of statistical learning, establishing the rigorous analytical foundations of regularized regression, tree ensembles, and high-dimensional inference.
Gathers hundreds of battle-tested recipes covering network programming, memory management, data structures, and functional decorators for veteran application developers.
Guides deep learning practitioners step-by-step through implementing transformer self-attention, token embeddings, and multi-layer perceptrons in pure PyTorch without relying on high-level wrappers.
Provides an essential hands-on manual for fine-tuning pre-trained transformer representations, covering transfer learning workflows, tokenizer optimizations, and production pipeline deployment.
Delivers the canonical blueprint for numeric analysis from the creator of pandas, thoroughly detailing NumPy structures, data cleaning, and high-speed transformations.
A distilled practitioner field guide outlining best practices for the entire machine learning lifecycle, from problem formulation and feature engineering to model deployment and monitoring.
Introduces clean architecture, domain-driven design, and event-driven microservices to Python developers, demonstrating repository patterns and dependency inversion.
Illuminates modern generative neural architectures through celebrated visual diagrams and code workflows, covering contrastive embeddings, semantic search, and retrieval-augmented generation.
Delivers an end-to-end systems architecture guide for building reliable production ML systems, addressing data engineering trade-offs, real-time feature computation, and model drift mitigation.
Bridges linear algebra, multivariable calculus, vector geometry, and probability directly to fundamental machine learning algorithms like PCA, Gaussian mixture models, and support vector machines.
Examines production-grade engineering patterns for training and serving large language models, addressing distributed GPU training, synthetic data pipelines, and quantitative model evaluations.
Delivers an interactive, comprehensive curriculum teaching multi-layer perceptrons, convolutional neural networks, attention mechanisms, and optimization math with runnable multi-framework code.
Demystifies programming for practical utility, guiding beginners through real-world automation projects including web scraping, spreadsheet generation, and file audits.
Provides a comprehensive overview of transfer learning for the arts, covering both theoretical foundations and practical applications. It is written by a leading researcher in the field and includes a wealth of examples and case studies.
Focuses on static typing, structural subtyping, and defensive design techniques, demonstrating how modern type annotations prevent regressions in enterprise codebases.
Instructs data scientists on applied model evaluation, cross-validation, hyperparameter tuning, and pipeline construction through Scikit-Learn maintainers Andreas Müller and Sarah Guido.
Provides a comprehensive overview of transfer learning for engineering, covering both theoretical foundations and practical applications. It is written by a leading researcher in the field and includes a wealth of examples and case studies.
Unpacks professional testing methodologies using pytest, explaining fixture management, parameterized tests, coverage tracking, and automated CI test execution.
Investigates the engineering realities of running automated ML pipelines in production, addressing data drift detection, automated retraining loops, telemetry infrastructure, and continuous validation.
Investigates advanced software craft, detailing packaging distribution, bytecode internals, scaling architectures, and maintainability across large distributed systems.
Details battle-tested infrastructure patterns for deploying deep reasoning models, addressing memory bandwidth limits, continuous GPU batching, semantic caching, and operational latency minimization.
Details cloud-native DevOps architectures for orchestrating automated machine learning lifecycles, integrating CI/CD triggers, model registry synchronization, and automated hyperparameter sweep workers.
Focuses on token segmentation, attention context preservation, and hierarchical chunking, giving deep learning engineers targeted techniques to maximize transformer retrieval accuracy.
Bridges volumetric point cloud analysis with Python, teaching LiDAR processing, spatial meshing, and 3D machine vision using modern scientific computing toolchains.
Analyzes edge-inference architectures for open-weights neural models, tackling parameter quantization, GGUF execution, KV cache memory bottlenecks, and efficient desktop serving.
Presents a welcoming, foundational ramp into computational logic and programming, establishing syntax literacy, object modeling, and error handling for total beginners.
Focuses on data augmentation techniques for computer vision applications. It covers a wide range of topics, including image cropping, flipping, rotating, scaling, and more.
Demonstrates how to leverage PyTorch 2.0 compiler optimizations and torch.compile to accelerate transformer training, attention layer fusion, and distributed model parallelism.
Provides 50 focused exercise routines and guided breakdowns designed to build instinctive muscle memory across collections, functional pipelines, algorithms, and file I/O.
Teaches computer vision fundamentals through concrete deep learning examples, from object detection and image segmentation to face recognition and generative vision architectures.
Presents the foundational treatise on Markov decision processes, temporal-difference learning, and policy gradient methods that underpin autonomous decision-making and modern post-training alignment.
Tackles the full lifecycle of shipping models into production, covering feature store development, container packaging, drift detection, and continuous retraining.
Connects computational linguistics theory to modern neural NLP architectures, demonstrating how vector embeddings, recurrent networks, and self-attention capture semantic nuances.
Bridges technical interview theory and practical research insights, answering 30 crucial conceptual questions about neural architectures, gradient dynamics, and model evaluation.
Unifies computer science, evolutionary biology, and neuroscience to synthesize the five foundational tribes of machine learning, giving practitioners a panoramic interdisciplinary view of learning algorithms.
Introduces core mathematical concepts and practical Python implementations of feedforward, convolutional, and recurrent neural networks for developers transitioning into deep learning.
Presents a comprehensive overview of zero-shot learning for computer vision, covering different techniques and their applications in tasks such as object detection, image classification, and video understanding.
Connects systems engineering with offensive network reconnaissance, detailing raw packet manipulation, Windows process injection, and reverse shell programming.

Share

Help others find this course page by sharing it with your friends and followers:

Similar courses

Here are nine courses similar to Machine Learning with Small Data Part 1.
Introduction to Deep Learning for Computer Vision
Most relevant
Structuring Machine Learning Projects
Most relevant
AI Capstone Project with Deep Learning
Most relevant
H2O ai Large Language Models (LLMs) - Level 1
Most relevant
Artificial Intelligence in Marketing
Most relevant
Responsible AI: Applying AI Principles with GC - Español
Most relevant
Convolutional Neural Networks
Most relevant
Introduction to Computer Vision and Image Processing
Most relevant
Image Compression and Generation using Variational...
Most relevant

Coursera Buyer Protection & Guarantee

Verified partner policies & purchase protections

Accredited University Partner
Free Trial & Audit

7-Day Free Trial & Free Audit

7-day free trial on monthly Coursera Plus subscriptions; free audit option available on most individual courses to explore video lectures and readings at no charge.

Return & Refund Policy

14-Day Refund Guarantee

14-day refund window on annual Coursera Plus subscriptions and single-course purchases prior to certificate issuance. Monthly subscriptions do not offer refunds once billed.

Buyer Protections

Verified Academic & Industry Partner

Accredited university and industry certifications (e.g. Stanford, Google, IBM, Yale), secure SSL payment processing, and verifiable digital certificate links.

Key Purchase Protections
14-day refund window on annual Coursera Plus and single courses
7-day free trial on monthly Coursera Plus subscriptions
Free course audit option for lectures and readings
Verified certificates from top universities & companies
OpenCourser Verified Partner Policy details last reviewed: 2026-10-22
Our mission

OpenCourser helps millions of learners each year. People visit us to learn workspace skills, ace their exams, and nurture their curiosity.

Our extensive catalog contains over 50,000 courses and twice as many books. Browse by search, by topic, or even by career interests. We'll match you to the right resources quickly.

Find this site helpful? Tell a friend about us.

Affiliate disclosure

We're supported by our community of learners. When you purchase or subscribe to courses and programs or purchase books, we may earn a commission from our partners.

Your purchases help us maintain our catalog and keep our servers humming without ads.

Thank you for supporting OpenCourser.

© 2016 - 2025 OpenCourser