AI in the Life Sciences Industry Part 1 – AI Terminology: Where to Start

AI in Life Sciences

Looking at AI innovation in Life Science Manufacturing to Gain a Competitive Edge

It seems like every day, there’s a new article or post about artificial intelligence (AI) driving innovation across various industries. From generating new content, such as articles or images, to making predictions and forecasting sales, AI is rapidly emerging in new areas and demonstrating immediate benefits. For manufacturers in life sciences, AI offers transformative opportunities to optimize production processes, ensure regulatory compliance, and accelerate time-to-market for life-saving products.

As a life sciences professional, you’ve likely seen these use cases and may have wondered how or when this powerful tool will start appearing in your day-to-day work. The truth is that AI is already making an impact in our industry, and now is the time to learn how to maximize its benefits while minimizing regulatory risks.

Understanding the fundamentals of AI is essential – not only to stay informed with changes and trends but also to apply AI effectively in areas like predictive maintenance, process optimization, and quality assurance. In this article, we’ll discuss some commonly used AI terminology, share some examples of how they are relevant to us in the life science industry, and disprove some common myths about the use of AI.

 

General Terms and Definitions:

Artificial Intelligence (AI): A machine or algorithm that performs tasks usually requiring human intelligence.

  • Example: In Life Sciences, AI systems are used to analyze patient data, identify patterns in drug discovery, and even make recommendations for personalized treatments.

Machine Learning (ML): A machine that automatically learns from data, recognizes patterns, and can make predictions concerning a particular task. ML is considered a subset of AI.

  • Example: Machine learning models can help predict the likelihood of drug efficacy by analyzing historical data from clinical trials or forecasting the spread of disease.

Deep Learning: A subset of ML that uses complex algorithms known as neural networks to learn from data and make predictions.

  • Example: Deep learning models have been used to help predict protein structures and aid in drug discovery. Additionally, models can be used to detect diseases such as pneumonia.

Large Language Model (LLM): A type of deep learning model that is trained on large amounts of data using advanced deep learning algorithms. LLMs are trained to understand the meaning of text sequences and the relationship between words and phrases.

  • Example: LLMs can be used to assist in drafting documentation, summarize clinical trial findings, and even accelerate reviews of new literature.

Generative AI (GenAI): A system that uses advanced algorithms to create new content from preexisting data. This new content can range from text, to images, to even molecular structures.

  • Example: In Life Sciences, GenAI can be used to aid in designing synthetic molecular structures for drug discovery, create hypothetical scenarios for clinical trials, and even generate simulated datasets for testing.

Retrieval Augmented Generation (RAG): The process of optimizing output from a large language model. RAG increases the capabilities of a LLM to focus on specific domains or knowledge bases without needing to completely retrain the existing model.

  • Example: In Life Sciences, RAG systems can generate more precise answers to questions about specific drug trial data by cross referencing a pharmaceutical database.

Understanding this terminology is like putting the pieces of a puzzle together. While AI provides the overarching framework, each subset adds new capabilities and complexity to solve specific problems.

 

 Why AI Matters for Manufacturers in Life Sciences

AI technologies such as machine learning and deep learning are more than buzzwords—they are tools that manufacturers can leverage to transform operations. For example, predictive algorithms can foresee equipment failure before it happens, allowing maintenance to be scheduled without disrupting production. Generative AI can simulate production scenarios to identify bottlenecks and improve efficiency.

As the industry evolves, regulatory requirements are becoming more stringent, and production timelines are under constant pressure. Understanding AI terminology and capabilities is critical for manufacturers who want to stay competitive. Key areas where AI can help include:

  • Streamlining Production: Automating routine tasks, improving batch consistency, and reducing downtime.
  • Enhancing Quality Control: Using AI-powered systems to identify defects and ensure compliance with GMP (Good Manufacturing Practices).
  • Optimizing Supply Chains: Applying machine learning to forecast demand and manage inventory more effectively.

 

Myths vs Reality: Reality in AI Adoption for Manufacturers

Myth 1: AI understands everything it processes.

  • Reality: AI operates on patterns in data but lacks proper understanding or intuition. For example, AI may identify correlations but won’t understand causation unless explicitly modeled.

Myth 2: AI systems are flawless and do not need review.

  •  Reality: AI systems are only as good as the data that they are trained on. This means that if low quality data is used, the system will only give low quality results. This can lead to bias, lack of objectivity or inaccurate results.

Myth 3: Once deployed, an AI system no longer needs human input.

  • Reality: Like any other technology, even after deployment, AI requires constant monitoring, updates and retraining. As new data becomes available, AI models must be adjusted and retrained to ensure accuracy.

Myth 4: AI can completely replace human experts.

  • Reality: AI systems excel at efficiently analyzing large amounts of data and running complex algorithms. Where AI lacks, however, is in contextual understanding of that data and ethical judgement. In the life sciences field specifically, while AI can help accelerate workflows and assist in repetitive and mundane activities, human oversight is required to ensure safety and compliance.

 

Next Steps: Building a Foundation for AI in Life Sciences Manufacturing

AI is no longer an abstract concept on the horizon—it’s here and transforming every facet of the life sciences industry. By understanding key AI terminology and recognizing how these technologies apply to your operations, you can position your organization to lead in innovation, enhance production quality, and remain competitive in a rapidly evolving market.

As you explore these technologies, focus on the specific challenges in your manufacturing processes where AI can make the biggest impact. In the next blog post, we’ll dive deeper into how AI is currently being used across the life sciences industry, from research and development to full-scale production.

Speak to one of our team members who can help you improve your operational efficiency while ensuring compliance.

RELATED

GET UPDATES

"*" indicates required fields

This field is for validation purposes and should be left unchanged.

Translate »
Scroll to Top