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<p>The integration of Process Analytical Technologies (PAT) within digital twin architecture represents an important advancement in biopharmaceutical manufacturing. While existing literature has separately addressed digital twin dimensions, interoperability levels, and manufacturing standards, their systematic integration for real-time bioprocess control remains underexplored. Our work provides an operational framework that bridges established frameworks on digital twin dimensions with hierarchical interoperability levels. Our conceptual framework establishes an interoperability “triangle” wherein Data and Connection dimensions function as the central hub linking Physical and Virtual entities with Services to enable model-based predictive control (MPC) through PAT integration. We exemplify the practical application of our proposed approach using a galactosylation adaptive control case study that spans purpose-driven systematic technology assessment to operational deployment at the testbed. Our study provides theoretical advancement in digital twin operationalization and a practical approach for implementing MPC-enabled PAT systems in highly regulated biopharmaceutical manufacturing, with potential for applicability across multiple critical quality attributes, unit operations, and manufacturing scales.</p>

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Operationalizing digital twins in biomanufacturing through interoperable process analytical technology

  • 期刊论文

  • 出版模式：

    开放获取

  • 发表日期：

    2026年7月16日

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  • Abhijeet Satwekar,
  • M. Cyndell Gracieux-Singleton,
  • Chris Cummings,
  • Jonquil A. R. Horton,
  • Monica Accerbi,
  • Veerabhadraiah Palakollu,
  • Ryan R. Barton,
  • Sandeep Kedia,
  • Thomas Cornish,
  • Katharina S. Yandrofski,
  • Roger Hart,
  • Dannielle Berlinghieri,
  • James Saylor,
  • Kelvin H. Lee

摘要

The integration of Process Analytical Technologies (PAT) within digital twin architecture represents an important advancement in biopharmaceutical manufacturing. While existing literature has separately addressed digital twin dimensions, interoperability levels, and manufacturing standards, their systematic integration for real-time bioprocess control remains underexplored. Our work provides an operational framework that bridges established frameworks on digital twin dimensions with hierarchical interoperability levels. Our conceptual framework establishes an interoperability “triangle” wherein Data and Connection dimensions function as the central hub linking Physical and Virtual entities with Services to enable model-based predictive control (MPC) through PAT integration. We exemplify the practical application of our proposed approach using a galactosylation adaptive control case study that spans purpose-driven systematic technology assessment to operational deployment at the testbed. Our study provides theoretical advancement in digital twin operationalization and a practical approach for implementing MPC-enabled PAT systems in highly regulated biopharmaceutical manufacturing, with potential for applicability across multiple critical quality attributes, unit operations, and manufacturing scales.