Overview
For Java enterprise developers and architects looking to expand their skill set into artificial intelligence and machine learning (AI/ML), getting started can feel intimidating, especially when faced with complex theory, data science, and unfamiliar programming languages.
Download Applied AI for Enterprise Java Development, a book about AI tailored specifically for Java developers. This practical guide shows you how to integrate generative AI, large language models, and machine learning into your existing Java enterprise ecosystem, using tools and frameworks you already know and love. By combining the reliability of Java’s enterprise framework with the power of AI, you’ll unlock new capabilities to elevate your development process and deliver innovative solutions.
- Get clear explanations of key AI techniques, hands-on examples, and real-world projects to help you build AI-powered applications without abandoning the familiar Java environment.
- Explore foundational AI concepts and learn how to apply core technologies to transform your Java projects into cutting-edge, modern applications.
With Early Release e-books, you get books in their earliest form—the authors’ raw and unedited content as they write—so you can take advantage of these technologies long before the official release of these titles. The final book is estimated to be released in September 2025.
Table of contents (not yet final):
- Chapter 1: The Enterprise AI Conundrum (available)
- Chapter 2: The New Types of Applications (coming soon)
- Chapter 3: Models: Serving, Inference, and Architectures (coming soon)
- Chapter 4: Public Models (coming soon)
- Chapter 5: Inference API (available)
- Chapter 6: Accessing the Inference Model with Java (NEW)
- Chapter 7: Langchain4J (coming soon)
- Chapter 8: Image Processing (coming soon)
- Chapter 9: Enterprise Use Cases (coming soon)
- Chapter 10: Architecture AI Patterns (coming soon)
Last updated: December 17, 2024
Excerpt
Gen AI employs neural networks and deep learning algorithms to identify patterns within existing data, generating original content as a result. By analyzing large volumes of data, Gen AI algorithms synthesize knowledge to create novel text, images, audio, video, and other forms of output. The history of AI spans decades, marked by progress, occasional setbacks, and periodic breakthroughs. The individual disciplines and specializations can be thought of as a nested box system as shown in Figure 1-1. Foundational ideas in AI date back to the early 20th century, while classical AI emerged in the 1950s and gained traction in the following decades. Machine learning (ML) is a comparably new discipline which was created in the 1980s, involving training computer algorithms to learn patterns and make predictions based on data. The popularity of neural networks during this period was inspired by the structure and functioning of the human brain.
What initially sounds like individual disciplines can be summarized under the general term Artificial Intelligence (AI). And AI itself is a multidisciplinary field within Computer Science that boldly strives to create systems capable of emulating and surpassing human-level intelligence. While traditional AI can be looked at as a mostly rule-based system the next evolution step is ML, which we’ll dig into next.
Machine Learning (ML): The Foundation of Today’s AI
ML is the foundation of today’s AI technology. It was the first approach that allowed computers to learn from data without the need to be explicitly programmed for every task. Instead of following predefined rules, ML algorithms can analyze patterns and relationships within large sets of data. This enables them to make decisions, classify objects, or predict outcomes based on what they’ve learned. The key idea behind ML is that it focuses on finding relationships between input data (features) and the results we want to predict (targets). This makes ML incredibly versatile, as it can be applied to a wide range of tasks, from recognizing images to predicting trends in data.
Machine Learning has far-reaching implications across various industries and domains. One prominent application is Image Classification, where ML algorithms can be trained to identify objects, scenes, and actions from visual data. For instance, self-driving cars rely on image classification to detect pedestrians, roads, and obstacles.
Another application is Natural Language Processing (NLP), which enables computers to comprehend, generate, and process human language. NLP has numerous practical uses, such as chatbots that can engage in conversation, sentiment analysis for customer feedback, and machine translation for real-time language interpretation.
Speech Recognition is another significant application of ML, allowing devices to transcribe spoken words into text. This technology has changed the way we interact with devices. It’s early iterations brought us voice assistants like Siri, Google Assistant, and Alexa. Finally, Predictive Analytics uses ML to analyze data and forecast future outcomes. For example, healthcare providers use predictive analytics to identify high-risk patients and prevent complications, while financial institutions utilize this technology to predict stock market trends and make informed investment decisions.