Published Paper PDF: View PDF
DOI: https://doi.org/10.63345/ijrmp.v14.i8.2
Dr Rambabu Kalathoti
Computer Science and Engineering
Koneru Lakshmaiah Education Foundation
Abstract
Clinical development pipelines are increasingly complex, capital‑intensive, and vulnerable to disruption from scientific setbacks, regulatory shifts, geopolitical events, supply‑chain disruptions, and public‑health crises. Traditional stage‑gate project management, while necessary for governance, is often too rigid to keep pace with dynamic trial portfolios and the accelerating cadence of regulatory and market signals. This manuscript proposes and explicates an adaptive project management (APM) framework tailored for clinical trial portfolio realignment (CTPR). Drawing from agile, lean, systems thinking, resilience engineering, and complexity science, the framework integrates rolling‑wave planning, adaptive governance boards, risk‑based monitoring, digital twins, real‑time analytics, and scenario simulation laboratories. Using a hypothetical yet data‑plausible multi‑asset oncology portfolio, we demonstrate how adaptive cadence, cross‑functional swarming, and value‑based prioritization can rebalance timelines, budgets, and patient enrollment targets after emergent shocks such as sudden protocol amendments, site closures, or mid‑study reprioritizations.
Quantitative simulations show marked improvements in decision latency (–62%), budget variance (from ±18% to ±7%), and probability of technical and regulatory success (PTRS) (+3.5 percentage points per asset) relative to waterfall baselines. A 12‑month action‑research pilot further evidences faster protocol amendment cycles, reduced monitoring costs, and higher team engagement scores. Qualitative interviews reveal cultural and tooling barriers but also highlight pragmatic enablers—clear compliance guardrails for agile ceremonies, unified data backbones, and empowered cross‑functional squads. The paper culminates in actionable guidance for biopharma sponsors, CROs, and academic consortia seeking to institutionalize adaptive ways of working (WoW) without compromising GxP compliance or patient safety. Finally, we propose a forward‑looking research agenda on AI‑augmented portfolio steering, federated data architectures, and the ethical governance of rapid iterative pivots in patient‑facing research, positioning APM as a cornerstone of resilient, learning clinical enterprises.
Keywords
Adaptive project management; clinical trial portfolio realignment; agile in pharma; rolling‑wave planning; risk‑based monitoring; digital twins; decision latency; PTRS improvement
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