Skip to content

Artificial Intelligence

November 21, 2023

Industry Use Cases of Boolean Formulas for Achieving XAI

FCAT Quantum Incubator

All Posts
Artificial Intelligence (AI) has become an integral part of our lives, shaping industries ranging from healthcare to finance and everything in between. However, as AI systems become increasingly complex, it becomes crucial to understand how they reach their decisions. This is where Explainable AI (XAI) and Simple Rules come into play. In this article, we will explore the concept of XAI and delve into the use of expressive Boolean formulas to make AI more transparent and interpretable.

Understanding Explainable AI (XAI)

Explainable AI, or XAI, refers to the practice of designing AI systems in a way that allows humans to understand their decision-making processes. It aims to bridge the gap between complex, black-box AI models and human comprehension. The need for XAI is evident in various industries where transparency and trust in AI systems are essential.

The Power of Simple Rules

One approach to achieving XAI is by using Simple Rules, which are easily interpretable decision-making mechanisms. Unlike complex neural networks or deep learning models, Simple Rules are intuitive and can be understood by humans without needing a deep understanding of machine learning algorithms. They often take the form of "if-then" statements, which outline specific conditions and corresponding actions.

Expressive Boolean Formulas for XAI

Recent research in AI has paved the way for using expressive Boolean formulas to create more transparent and interpretable AI systems. The FCAT Quantum and Future Computing team’s research introduces the idea of representing complex AI models as Boolean formulas, making it easier for humans to grasp the decision-making process. They have implemented machine learning and optimization techniques to prepare rule-based models for interpreting data, some of which could take advantage of quantum computing hardware once it is mature to make the models more efficient. This approach offers several advantages, such as:

Trust & Transparency: Boolean formulas are inherently transparent and provide a clear representation of how inputs are processed to generate outputs.

Interpretability: These formulas are intuitive and can be understood by domain experts, regulators, and end-users, promoting trust in AI systems.

Use Cases Across Industries

Let's explore how expressive, rule-based Boolean formulas can be applied across various industries to achieve XAI.

Healthcare: In medical diagnosis, using Boolean formulas can help doctors understand why a particular AI system recommends a specific treatment or diagnosis. This can enhance the collaboration between AI and medical professionals.

Finance: In the financial sector, Boolean formulas can be used to explain AI-driven investment decisions. Investors and regulators can better comprehend the risk factors and logic behind investment strategies.

Manufacturing: In manufacturing, Boolean formulas can assist in quality control. Factory workers can easily grasp why an AI system flagged a product as faulty, leading to quicker interventions.

Marketing: In marketing Boolean formulas can be used to segment its customer base effectively using data the company has on customer demographics, purchase history, and online behavior. AI algorithms can process this data and generate potential customer segments based on various features like age, location, browsing history, and purchase frequency. Instead of presenting the marketing team with a complex neural network model, the AI system converts the segmentation rules into expressive Boolean formulas. For example:

Segment A: IF (Age 30) AND (Location = "Urban") THEN (Target for new tech products)

Segment B: IF (Purchase Frequency > 5) AND (Browsing History includes "outdoor activities") THEN (Target for outdoor gear)

Segment C: IF (Age >= 50) AND (Location = "Suburban") THEN (Target for home and garden products)

Armed with this clear understanding, the marketing team can create highly targeted and personalized marketing campaigns for each segment. They know why a particular group of customers is being targeted for specific products or promotions.

After running these campaigns, the marketing team can assess their effectiveness and make adjustments based on the feedback. If a segment isn't responding as expected, they can revisit the Boolean formula to refine the conditions.

What’s Next

Explainable AI is vital in ensuring that AI systems are transparent, trustworthy, and capable of gaining acceptance across various industries. Expressive Boolean formulas offer a promising avenue for achieving XAI, making AI decisions more interpretable for humans. As AI continues to play a pivotal role in shaping our world, it's essential to prioritize the development and adoption of XAI techniques like expressive Boolean formulas to ensure that AI serves us effectively and ethically.

Aside from advanced computing resources such as fast GPUs and parallel processing techniques that have made large AI models viable, researchers hope to utilize quantum computers to take applications to a higher level. Quantum hardware is still at a primitive stage though, and cannot be used to solve real world problems efficiently at the moment. Researchers are focused on hybrid classical-quantum applications in the interim to be prepared for when quantum hardware is available at scale.

The Boolean rule finder that was published by the FCAT Quantum and Future Computing team, has been developed by having this fact in mind. They have provided models that can use quantum hardware to solve an optimization problem in order to obtain the XAI rules.

Deeper Dive

For a deeper understanding of the mathematical foundations and practical implementation of expressive Boolean formulas in AI, see the FCAT Quantum and Future Computing team’s white paper on MDPI.

References & Disclaimers

For illustrative purposes.

Related posts

Technology & Society, Artificial Intelligence

New Data Fuels AI Opportunities in a Remote World

Sarah Hoffman

March 17, 2021

Now that so many of us are doing almost everything online at home -- shopping, work, doctor appointments, school, financial check-ins, parent-teacher conferences --- you may have noticed some not so subtle behavior changes among those around you. Maybe a colleague has suddenly started blocking her video feed during Zoom calls. Perhaps a customer has started speaking slower, making a lot of spelling errors, or is typing at a different pace. Maybe you’ve noticed a change in the tones of a colleague’s MS Teams or Yammer posts or changes in a customer’s chatbot message style. All of this could be indicative of something important, and AI is an ideal tool to pick up on these changes.

Emerging Technology, Future Computing

Solving Problems Differently with Quantum Computing

Adam Schouela

March 31, 2021

There has been a lot of news about how quantum computers will change computing as we know it. That said, a general-purpose quantum computer that will have the capability of replacing the classical computers we use every day may perpetually be out of reach. At Fidelity, we do not need to wait for a general-purpose quantum computer. There are a few specific types of problems that quantum computers will likely be able to tackle in the near term and optimization problems just so happen to be one of those types of problems. FCAT is positioning Fidelity to be able to leverage this new technology the moment it becomes viable by exploring the optimization algorithms and implementations that have the most potential to deliver value to Fidelity and our customers.

Technology & Society, Artificial Intelligence, Emerging Technology

Lydia Chilton on AI Creativity: What’s the Big Idea?

Sarah Hoffman

March 10, 2022

Can the design process be enhanced or improved by the power of AI? After a recent Artificial Intelligence Club event, Columbia University’s Lydia Chilton sat down with FCAT’s Sarah Hoffman to discuss the potential of AI as a creative tool. Chilton is an Assistant Professor in the Computer Science Department and is an early pioneer in deconstructing complex problems so that crowds and computers can solve them together. Her current research is focused on computation and how AI can help people with design, innovation, and creative problem solving.