The integration of AI into healthcare documentation demands a careful and precise strategy. Drawing inspiration from specialized models such as Radiology-GPT, Med-Palm 2 etc., the following blog is being written to highlight some key steps towards building or tuning an LLM model for various clinical documentation tasks across the healthcare value chain.
Here's the detailed blueprint:
- Collection and Compliance: Collaborate with hospitals, clinics, and research institutions to acquire a representative set of clinical documentation such as reports, electronic health records, discharge summaries, prior authorization forms etc.. Ensure that all data adheres to regulations like GDPR, HIPAA, and is fully anonymized.
- Data Cleansing and Standardization: Use Named Entity Recognition (NER) to further anonymize any personal details. Extract pivotal sections like "Findings", "Diagnosis", and "Recommendations". Adopt standardized medical terminology systems to maintain uniformity.
- Text Tokenization: Convert clinical documentation into machine-understandable formats.
- Language Refinement: Apply stemming and lemmatization for efficient word recognition.
- Data Enrichment: Implement data augmentation techniques, such as back translation or synonym replacement, to increase the diversity and size of your training data.
- Foundation Model: Opt for a pre-existing robust model, such as GPT-3 etc., leveraging its deep linguistic capabilities.
- Optimized Training Infrastructure: Create scalable pipelines, preferably with GPUs or TPUs.
- Combatting Overfitting / Underfitting: Monitor the training process for signs of overfitting or underfitting, using techniques such as early stopping, dropout, or L1/L2 regularization to mitigate these issues.
- Quality Assessment Vectors: It's crucial to evaluate LLM outputs for coherence, comprehensiveness, factual consistency, and harmfulness. This ensures the generated text uphold the necessary standards and prioritize patient safety.
- Tailored Prompts: Implement instructions like "Compile a comprehensive summary of these clinical findings..."
- Advanced Prompt Engineering: Incorporate domain-specific prompts and Chain of Thought (CoT) methods to ensure precise outputs. Ensure translations suit different reader categories.
- Classification and Augmentation: Prep the model to spot anomalies and utilize synthetic data for enhanced training.
- Automated Assessment Tools: Utilize metrics like BLEU and ROUGE for unbiased quality evaluations.
- Healthcare Professional Feedback: Foster a loop with medical experts for feedback, refining the model in tandem with their insights.
- Collaborative Engagements: Engage with healthcare professionals to continuously expand and refine the model's tasks.
- Audience-Focused Translations: Develop prompts tailored for varied audiences, ensuring all documentation remains accessible.
- Prioritize Data Security: Deployment should emphasize data encryption and stringent access controls.
- Smooth Model Updates: Design an infrastructure that supports continuous model updates without disruptions.
- Adaptability: Periodically retrain the model using fresh data, ensuring it stays relevant to evolving medical practices.
- Continuous Model Monitoring: Consistently monitor AI-generated documents to uphold quality and patient safety standards.
- Sun, Z., Ong, H., Kennedy, P., Tang, L., Chen, S., Elias, J., Lucas, E., Shih, G. and Peng, Y., 2023. Evaluating GPT-4 on Impressions Generation in Radiology Reports. Radiology, 307(5), p.e231259.
- Wiggins, W.F. and Tejani, A.S., 2022. On the opportunities and risks of foundation models for natural language processing in radiology. Radiology: Artificial Intelligence, 4(4), p.e220119.
- Wu, Z., Zhang, L., Cao, C., Yu, X., Dai, H., Ma, C., Liu, Z., Zhao, L., Li, G., Liu, W. and Li, Q., 2023. Exploring the trade-offs: Unified large language models vs local fine-tuned models for highly-specific radiology nli task. arXiv preprint arXiv:2304.09138.
- Liu, Z., Zhong, A., Li, Y., Yang, L., Ju, C., Wu, Z., Ma, C., Shu, P., Chen, C., Kim, S. and Dai, H., 2023. Radiology-GPT: A Large Language Model for Radiology. arXiv preprint arXiv:2306.08666.
- Lyu, Q., Tan, J., Zapadka, M.E., Ponnatapuram, J., Niu, C., Wang, G. and Whitlow, C.T., 2023. Translating radiology reports into plain language using chatgpt and gpt-4 with prompt learning: Promising results, limitations, and potential. arXiv preprint arXiv:2303.09038.
- Wang, J., Shi, E., Yu, S., Wu, Z., Ma, C., Dai, H., Yang, Q., Kang, Y., Wu, J., Hu, H. and Yue, C., 2023. Prompt engineering for healthcare: Methodologies and applications. arXiv preprint arXiv:2304.14670.
- Javan, R., Kim, T., Mostaghni, N. and Sarin, S., 2023. ChatGPT’s Potential Role in Interventional Radiology. CardioVascular and Interventional Radiology, pp.1-2.
Disclaimer: The perspectives and insights shared in this blog post are entirely my personal viewpoints and do not echo the beliefs or stances of my employer, Olympus Europa SE & Co. KG. The content of this post has been produced with the aid of ChatGPT, an advanced language model by OpenAI. While I have thoroughly inspected and validated its content, readers should be aware of the AI-assisted nature of this article. The information shared herein stems from my individual understanding and expertise in AI's role within healthcare. It's essential to understand that while this post aims to simplify and provide a foundational grasp on the process of AI integration in healthcare, it might not capture the intricate nuances and challenges of real-world applications. This post is intended as a general introduction to AI in healthcare. For detailed projects or strategies, seeking insights from specialists in the field and complying with pertinent standards and regulations is paramount.
Founder & CTO, InnAccel
1 年Sailesh Conjeti thanks for the blueprint and the recommend reads.