Silence Inside Systems: Roots and Generativity Consequences

Modern information technology (IT) systems evolve less through visible coordination and more through subtle behavioral patterns—most notably, silence: the relative absence of interaction internally. We conceptualize silence as a dynamic system-wide behavior distinct from architecture. This quietness is a powerful design trait. Our study of nearly 1,400 systems over 25 years shows that when modules “talk” less, developers focus more, accelerating evolutionary innovation. Silent systems produce cleaner, more maintainable code and are 600 times more likely to be extended by others. This matters now more than ever. As systems grow larger and more entangled, brittleness has become a pressing problem; small tweaks routinely trigger large failures. Brute-force solutions, like scaling compute power, are reaching physical and economic limits. Silence is an architectural antidote; by reducing internal dependencies, it lets teams adapt swiftly, avoid technical debt spirals, and better steward artificial intelligence-driven and autonomous systems. For practitioners and policymakers, this paper urges a rethink of how we build and sustain IT systems. Rather than endlessly scaling resources to support chatty, tightly linked modules, designers should prioritize structural quietness. Silence is not just good hygiene; it is a lever for IT resilience, scalability, and generative innovation. Silence is golden; it is what sharpens attention, anchors stability, and unlocks generative possibility.

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Publication Details

Journal
Information Systems Research
Published
2025-06-27
DOI
https://doi.org/10.1287/isre.2022.0586
Primary Topic
Software Engineering Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Silence Inside Systems: Roots and Generativity Consequences

Amrit Tiwana, Hani Safadi
Information Systems Research
Software Engineering Research
article

Silence Inside Systems: Roots and Generativity Consequences

Amrit Tiwana, Hani Safadi
article en

Abstract

Modern information technology (IT) systems evolve less through visible coordination and more through subtle behavioral patterns—most notably, silence: the relative absence of interaction internally. We conceptualize silence as a dynamic system-wide behavior distinct from architecture. This quietness is a powerful design trait. Our study of nearly 1,400 systems over 25 years shows that when modules “talk” less, developers focus more, accelerating evolutionary innovation. Silent systems produce cleaner, more maintainable code and are 600 times more likely to be extended by others. This matters now more than ever. As systems grow larger and more entangled, brittleness has become a pressing problem; small tweaks routinely trigger large failures. Brute-force solutions, like scaling compute power, are reaching physical and economic limits. Silence is an architectural antidote; by reducing internal dependencies, it lets teams adapt swiftly, avoid technical debt spirals, and better steward artificial intelligence-driven and autonomous systems. For practitioners and policymakers, this paper urges a rethink of how we build and sustain IT systems. Rather than endlessly scaling resources to support chatty, tightly linked modules, designers should prioritize structural quietness. Silence is not just good hygiene; it is a lever for IT resilience, scalability, and generative innovation. Silence is golden; it is what sharpens attention, anchors stability, and unlocks generative possibility.

Information Systems Research
University of Georgia (US)
Openalex Percentile: Top 78%
Software Engineering Research
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