Structural Leverage
구조적 레버리지
Power that workers derive purely from their position within the economic system, as formalized by Erik Olin Wright and Beverly Silver, distinct from 'associational power' obtained through unions and collective organization. Silver subdivides it into 'marketplace bargaining power' (from tight labor markets or scarce skills) and 'workplace bargaining power' (from a strategic location in the production process where a small group's work stoppage can paralyze an entire supply chain).
In depth
Origins
The concept of structural power was first articulated by American Marxist sociologist Erik Olin Wright (1947–2019) in his 2000 paper 'Working Class Power, Capitalist Class Interests, and Class Compromise.' Wright distinguished between 'associational power' (the power workers derive from collective organization such as unions, parties, and social movements) and 'structural power' (the power that results simply from workers' location within the economic system).
Beverly J. Silver refined this framework in her 2003 book Forces of Labor: Workers' Movements and Globalization since 1870. She subdivided structural power into two types:
- Marketplace bargaining power: power resulting from tight labor markets, possession of scarce skills, or workers having income sources independent of wage labor (welfare systems, family support).
- Workplace bargaining power: power resulting from workers' strategic location within the production process, where a localized work stoppage by a small group can cause massive disruption across a wider production network.
Historical Cases
Silver compared the textile and automobile industries to demonstrate how workplace bargaining power shapes the fate of labor movements. Textile production required low capital entry and was fragmented across many workshops, so a strike in one facility had limited sectoral impact. Automobile production, by contrast, was built on interconnected assembly lines: a small group's work stoppage could halt an entire factory (even the whole corporation). This structural difference was key to the UAW's victory in the 1936–37 Flint sit-down strike against General Motors.
Contemporary Application
Silver's framework extends to modern industries including semiconductors, logistics, education, and services. Semiconductor fabrication is extremely capital-intensive with tightly coupled continuous processes: a disruption at one node can cripple an entire fab. This grants semiconductor workers, particularly mid-level process managers (part-jang) who oversee production flow, formidable workplace bargaining power. Replacing them en masse would be tantamount to shutting down the entire process, making their collective action a form of structural leverage distinct from a traditional strike.
Theoretical Significance
The concept of structural leverage expands labor's strategic imagination beyond the frame of 'legal industrial action.' The insight that a strategic position in the production process can itself be a source of power (independent of union density or membership numbers) provides a theoretical foundation for new methodologies of struggle under conditions where cadre-centered traditional union organizing has reached its limits.
Sources
- Silver, Beverly J. Forces of Labor: Workers' Movements and Globalization since 1870. Cambridge University Press, 2003. — Defines structural power as power derived from workers' location in the economic system, subdivided into marketplace bargaining power and workplace bargaining power.
- Wright, Erik Olin. "Working Class Power, Capitalist Class Interests, and Class Compromise." American Journal of Sociology, 2000. — Originates the associational/structural power distinction in class analysis.
- Allinson, Ian. "Remaking the Working Class and its Power." RS21, 2014. Korean translation explaining Silver's framework: structural power = marketplace bargaining power + workplace bargaining power.
- International Socialism. "Workers' power under global capitalism." Review of Silver's Forces of Labor. Details structural power subtypes and their application to auto, textile, and semiconductor sectors.