Tech Transfer logo

Tech Transfer

Process definitions that carry forward from development to GMP and across sites as structured, version-controlled assets.

Solution by Seal
Visit website

Overview

Seal's Tech Transfer module treats process definitions as structured, version-controlled assets rather than documents. When a process moves from development to GMP manufacturing, or from one site to another, the definition carries forward intact — parameters, rationale, unit operations, and analytical methods — without manual re-entry. The module is designed for biopharmaceutical organizations, CDMOs, and sponsors managing multi-site or multi-partner manufacturing programs where repeated re-keying of process data across transfers is a significant source of delay and error.

The core premise is that tech transfer failures are documentation failures, not science failures. Six-to-eighteen-month transfer timelines are the industry norm, driven by manual re-creation of process records across disconnected systems. Seal addresses this by maintaining a single structured data model across the development and GMP lifecycle, so that promoting a process to a new state or site is a configuration change on the same record, not a translation project.

Why document-based transfer fails

  • Process definitions stored as Word SOPs, PDFs, or Excel workbooks are static snapshots. Transferring them requires reading and manually re-creating them in the target system, line by line and parameter by parameter.
  • Every manual re-creation introduces drift; every drift requires reconciliation; every reconciliation generates additional derivative documents — site-specific MBRs, training SOPs, validation protocols — each of which must be kept in sync with the original.
  • Incumbent responses layer more documentation on top: transfer protocols, equipment equivalency matrices, risk assessments, gap analyses, site readiness checklists, and technology transfer reports, each version-controlled by filename and manually maintained.
  • Audit trail fragmentation is a second cost: development ELNs, manufacturing MES systems, QMS platforms, and statistical tools each carry their own audit trail. Reconstructing the rationale for a parameter setting requires manual reconciliation across three to five systems.
  • Institutional knowledge evaporates at every handoff. Experienced engineers become bottlenecks because only they remember where the original experimental data justifying a parameter range actually lives.

How Seal structures process definitions for transfer

  • A Platform Process is composed of reusable, versioned building blocks: unit operations (with their own inputs, outputs, parameters, and quality attributes), analytical methods (with validation state and acceptance criteria), and material specifications linked to the same catalogue used by procurement and receiving.
  • These blocks are canonical references, not copies. A change made to a block propagates wherever it is used, with change control enforced at propagation time.
  • A Site-Specific Process binds the platform to a specific facility — for example, a 2000L bioreactor in Boston, a 5000L in Dublin, and a 1000L in Singapore. Sites configure against the platform; they do not re-author it.
  • When the platform improves, the improvement is available to every bound site. When a site-specific parameter changes, the scope of what requires re-review is explicit rather than inferred from email chains.
  • Master batch records are generated from the process definition rather than typed up in parallel to it. When regulators request process documentation, the result is a traversable data model with inspectable links from parameter to development study to batch to deviation.

Unified platform versus layered digital thread

  • A "digital thread" approach layers a separate lifecycle tool on top of existing ELN, MES, LIMS, and QMS systems. Each system boundary introduces translation overhead, a separate audit trail, and a separate change-control cycle.
  • When the same concept — a unit operation or CPP — exists in two systems, it has two slightly different definitions and two change histories. A CPP range tightened in the ELN must pass through a change-control cycle in the layered tool and another in the MES before it is received.
  • Integration breaks in regulated environments require revalidating the integration itself, compounding maintenance overhead across multiple vendors and roadmaps.
  • Seal runs Process Development and GMP Manufacturing on the same platform with a shared data model, a single audit trail, and a single permissions model. A unit operation defined in the ELN is the same record that executes in the master batch record — not a translation of it.
  • For organizations that cannot fully consolidate — due to deeply embedded incumbent systems or contract manufacturer requirements — Seal can operate alongside existing tools, though the full benefit of the unified architecture requires a unified architecture. Teams that pursue a layered approach typically rebuild the integration themselves within eighteen months.

AI extraction for legacy documents

  • Seal ingests existing development documents — PDFs, Excel workbooks, JMP files, PowerPoint decks — and uses AI to extract structured records: CPPs, operating ranges, rationale, and experimental context.
  • Extracted content is presented as a changeset, structured as a diff showing every proposed addition, modification, and link. Reviewers see the source document alongside the extracted record.
  • Reviewers accept correct extractions, correct incorrect values in-line, and reject proposed parameters that should not be included. Nothing enters the database without human approval; the AI transcribes process content, it does not generate it.
  • This incremental extraction model allows organizations with large archives of disconnected documents to begin benefiting from structured transfer immediately, without a multi-year migration project. Each successive transfer benefits from a progressively larger base of live structured data.

Equipment equivalency as a structured entity

  • Equipment equivalency arguments — whether a 2000L Sartorius bioreactor performs equivalently to a 2000L Thermo bioreactor, or whether TFF skids from different vendors produce comparable shear stress — are treated as first-class entities in Seal, linked directly to process definitions and specific parameter ranges.
  • In document-based transfers, this rationale is typically trapped in appendices of Word documents attached to transfer protocols and is not accessible during subsequent transfers.
  • Seal links equivalency records structurally so that when a new site is added or equipment changes, the existing equivalency arguments are queryable and traceable rather than buried in archived files.

Seal is positioned as a single platform spanning the full bioprocess lifecycle, replacing the fragmented combination of ELN, MES, LIMS, and QMS point solutions with one data model, one change-control workflow, and one audit trail. The tech transfer capability specifically targets the re-entry cost that recurs at every transfer event — development to GMP, site to site, sponsor to CDMO — by making process promotion a structured operation on a living record rather than a manual documentation project.

Meta

Domain
Manufacturing & Bioprocessing
Subdomain
Manufacturing Execution Systems (MES)
Software type(s)
Workflow Automation
Deployment type(s)
Cloud / SaaS
Industry vertical(s)
PharmaBiotechCRO
Development stage(s)
Preclinical / Pre-MarketManufacturing
Target user(s)
Lab Manager / Core Facility ManagerResearch ScientistQA / Regulatory AffairsAutomation Engineer
Compliance standard(s)
21 CFR Part 11GxP
Tag(s)
Uses AI