Strengthening Knowledge Resilience in Innovative Organizations

Innovative organizations operating in specialized fields such as aerospace, biotechnology, and defense are increasingly reliant on internal labor markets to cultivate and retain critical tacit knowledge. These organizations, exemplified by entities like NASA, the DoD, and SpaceX, derive competitive and strategic advantages from proprietary knowledge that is deeply embedded within their organizational structure. The resilience of knowledge networks within such environments is paramount, not only to sustain innovation but also to ensure operational continuity in the face of staff turnover and other disruptions. Managing and safeguarding this intellectual capital requires sophisticated strategies to map, understand, and enhance the flow and retention of knowledge between various organizational strata. Specific challenges such as high personnel turnover rates and rapidly changing organizational structures can significantly disrupt these knowledge networks. Understanding these networks in detail enables organizations to effectively manage personnel talent, strategically place new hires, and facilitate mentoring and knowledge transfer programs that align with organizational needs and dynamics. Using a recently developed method by authors to construct and weight organizational knowledge networks and a novel percolation technique, this work explores the resilience of these networks by offering metrics and pertinent interrogation methods. The work emphasizes flow-based centrality metrics to pinpoint critical nodes and connections that are essential for robust knowledge transfer, while also identifying potential vulnerabilities within the network structure. By analyzing the resilience of these networks, the study provides strategic insights into how organizations can protect and optimize their intellectual capital against disruptions, ensuring a steady flow of innovation and maintaining their unique position in the market. This research not only contributes to theoretical advancements in network analysis and knowledge management, but also offers practical tools for organizations to proactively manage and enhance the resilience of their crucial knowledge networks. To illustrate the application of these concepts, a case study will be conducted using publicly available data from NASA employees. This case study will construct and analyze a knowledge network for NASA to assess its resilience and identify strategic interventions that could enhance its robustness against personnel changes and structural shifts.

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Publication Details

Published
2025-03-01
DOI
https://doi.org/10.1109/aero63441.2025.11068613
Primary Topic
Innovation and Knowledge Management
Type
article
Field-Weighted Citation Impact
0.00

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article

Strengthening Knowledge Resilience in Innovative Organizations

JD Caddell, Roshanak Nilchiani
Innovation and Knowledge Management
article

Strengthening Knowledge Resilience in Innovative Organizations

JD Caddell, Roshanak Nilchiani
article en

Abstract

Innovative organizations operating in specialized fields such as aerospace, biotechnology, and defense are increasingly reliant on internal labor markets to cultivate and retain critical tacit knowledge. These organizations, exemplified by entities like NASA, the DoD, and SpaceX, derive competitive and strategic advantages from proprietary knowledge that is deeply embedded within their organizational structure. The resilience of knowledge networks within such environments is paramount, not only to sustain innovation but also to ensure operational continuity in the face of staff turnover and other disruptions. Managing and safeguarding this intellectual capital requires sophisticated strategies to map, understand, and enhance the flow and retention of knowledge between various organizational strata. Specific challenges such as high personnel turnover rates and rapidly changing organizational structures can significantly disrupt these knowledge networks. Understanding these networks in detail enables organizations to effectively manage personnel talent, strategically place new hires, and facilitate mentoring and knowledge transfer programs that align with organizational needs and dynamics. Using a recently developed method by authors to construct and weight organizational knowledge networks and a novel percolation technique, this work explores the resilience of these networks by offering metrics and pertinent interrogation methods. The work emphasizes flow-based centrality metrics to pinpoint critical nodes and connections that are essential for robust knowledge transfer, while also identifying potential vulnerabilities within the network structure. By analyzing the resilience of these networks, the study provides strategic insights into how organizations can protect and optimize their intellectual capital against disruptions, ensuring a steady flow of innovation and maintaining their unique position in the market. This research not only contributes to theoretical advancements in network analysis and knowledge management, but also offers practical tools for organizations to proactively manage and enhance the resilience of their crucial knowledge networks. To illustrate the application of these concepts, a case study will be conducted using publicly available data from NASA employees. This case study will construct and analyze a knowledge network for NASA to assess its resilience and identify strategic interventions that could enhance its robustness against personnel changes and structural shifts.

Stevens Institute of Technology (US)
U.S. Department of Defense
Climate action
Openalex Percentile: Top 74%
Innovation and Knowledge Management
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