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In-vitro fertilization laboratory safety: engineered through people, process, and planning.

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The shift to freeze-all cycles in IVF labs increases risks from infrastructure and data failures. Implementing automated monitoring and electronic witnessing is crucial for patient safety and specimen integrity.

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Area of Science:

  • Assisted reproductive technology
  • Laboratory management
  • Patient safety

Background:

  • The IVF field has shifted to a freeze-all model, increasing cryopreserved specimen inventories.
  • This shift alters the risk profile from acute procedural errors to latent infrastructure and data management failures.
  • Long-term storage of gametes and embryos is becoming more prevalent with assisted reproductive technology and social freezing.

Purpose of the Study:

  • To examine new field threats in IVF laboratories.
  • To outline strategies for mitigating risks associated with increased specimen inventories and long-term storage.

Main Methods:

  • Review of recent disasters and vulnerabilities in IVF laboratory operations.
  • Analysis of risk profiles in modern IVF laboratory settings.
  • Examination of current accreditation standards and technological solutions.

Main Results:

  • While procedural errors are rare, recent incidents highlight vulnerabilities in cryostorage monitoring, witnessing, and data transfer.
  • Increased specimen inventories concentrate risk in long-term storage, affecting numerous patients in tail-risk scenarios.
  • Failures in equipment or data management pose significant threats to patient safety and specimen viability.

Conclusions:

  • Modern IVF labs face tail-risk scenarios requiring a move towards preventive work resilience.
  • Automated technologies like weight-based cryostorage monitoring and electronic witnessing are essential.
  • These technologies protect patient specimen identity, viability, and genetic integrity.