Uploaded May 2026 | Updated September 2026, 58 minutes ago
In 1990, the United States commanded 37% of global semiconductor production. Today, that number has plummeted to just 12%, while Asia—led by a single company, TSMC—controls a near-total monopoly on the most advanced chips on Earth.
This was not a loss of scientific genius, and it wasn't corporate espionage. It was a voluntary surrender.
Narrated by Tom McKay
instagram.com/tmckay715
youtube.com/@MetalRobotReviews
Footage: Shutterstock
Inquiries: behindasian@gmail.com
Brought to you by the Behind Asian Team.
📚 Primary Reading & Historical Context
Chip War: The Fight for the World's Most Critical Technology by Chris Miller: The definitive history of the semiconductor industry. This is the primary source for the founding of TSMC, Morris Chang’s departure from Texas Instruments, Jerry Sanders's "Real men have fabs" philosophy, and the shift from vertically integrated companies to the fabless model.
National Bureau of Economic Research (NBER): The U.S.-Japan Semiconductor Trade Conflict by Douglas A. Irwin. Details the catastrophic backfire of the 1986 treaty, including the artificial price floors that handed Japanese producers an estimated $1.2 billion in excess profits in 1988 alone.
The Big Score by Michael S. Malone: Historical documentation of early Silicon Valley, including the caustic chemical usage, union-busting efforts, and the environmental contamination of the Santa Clara Valley groundwater.
📊 Market Share & Economic Data
Semiconductor Industry Association (SIA) & Boston Consulting Group: Historic production data detailing the plunge in U.S. manufacturing share from 37% in 1990 to roughly 12% today, alongside the rise of Asian dominance.
TrendForce (2024/2025 Foundry Revenue Data): Current market analytics confirming TSMC's capture of nearly 70% of the global pure-play foundry market.
Liberty Street Economics / Bureau of Labor Statistics: The Decline of U.S. Manufacturing Jobs. Verifies the staggering loss of 5.7 million American manufacturing jobs between 2000 and 2010.
AlixPartners 2021 Global Automotive Outlook: Financial analysis of the pandemic-era chip shortage, quantifying the massive $210 billion revenue loss suffered by the global auto industry.
⚙️ Technical Specifications & Fabrication Logistics
ASML Corporate Documentation: Official specifications for Extreme Ultraviolet (EUV) Lithography systems. Confirms the $150M+ price tag, the 50,000-times-per-second molten tin plasma process, and the massive shipping requirements (40 freight containers and three Boeing 747 aircraft).
Silicon Analysts / Process Node Pricing Data: April 2026 industry pricing metrics detailing the ~$19,500 cost to produce a single 3-nanometer wafer at TSMC.
Apple Silicon Architecture: Hardware specifications for the M3 Max processor, verifying the 3-nanometer architecture and the 92 billion transistor count.
U.S. Department of Commerce: Documentation on the CHIPS and Science Act, verifying the $280 billion overall legislative package and the $52.7 billion directly earmarked for domestic semiconductor revitalization.
In 1990, the United States commanded 37% of global semiconductor production. Today, that number has plummeted to just 12%, while Asia—led by a single company, TSMC—controls a near-total monopoly on the most advanced chips on Earth.
This was not a loss of scientific genius, and it wasn't corporate espionage. It was a voluntary surrender.
Narrated by Tom McKay
instagram.com/tmckay715
youtube.com/@MetalRobotReviews
Footage: Shutterstock
Inquiries: behindasian@gmail.com
Brought to you by the Behind Asian Team.
📚 Primary Reading & Historical Context
Chip War: The Fight for the World's Most Critical Technology by Chris Miller: The definitive history of the semiconductor industry. This is the primary source for the founding of TSMC, Morris Chang’s departure from Texas Instruments, Jerry Sanders's "Real men have fabs" philosophy, and the shift from vertically integrated companies to the fabless model.
National Bureau of Economic Research (NBER): The U.S.-Japan Semiconductor Trade Conflict by Douglas A. Irwin. Details the catastrophic backfire of the 1986 treaty, including the artificial price floors that handed Japanese producers an estimated $1.2 billion in excess profits in 1988 alone.
The Big Score by Michael S. Malone: Historical documentation of early Silicon Valley, including the caustic chemical usage, union-busting efforts, and the environmental contamination of the Santa Clara Valley groundwater.
📊 Market Share & Economic Data
Semiconductor Industry Association (SIA) & Boston Consulting Group: Historic production data detailing the plunge in U.S. manufacturing share from 37% in 1990 to roughly 12% today, alongside the rise of Asian dominance.
TrendForce (2024/2025 Foundry Revenue Data): Current market analytics confirming TSMC's capture of nearly 70% of the global pure-play foundry market.
Liberty Street Economics / Bureau of Labor Statistics: The Decline of U.S. Manufacturing Jobs. Verifies the staggering loss of 5.7 million American manufacturing jobs between 2000 and 2010.
AlixPartners 2021 Global Automotive Outlook: Financial analysis of the pandemic-era chip shortage, quantifying the massive $210 billion revenue loss suffered by the global auto industry.
⚙️ Technical Specifications & Fabrication Logistics
ASML Corporate Documentation: Official specifications for Extreme Ultraviolet (EUV) Lithography systems. Confirms the $150M+ price tag, the 50,000-times-per-second molten tin plasma process, and the massive shipping requirements (40 freight containers and three Boeing 747 aircraft).
Silicon Analysts / Process Node Pricing Data: April 2026 industry pricing metrics detailing the ~$19,500 cost to produce a single 3-nanometer wafer at TSMC.
Apple Silicon Architecture: Hardware specifications for the M3 Max processor, verifying the 3-nanometer architecture and the 92 billion transistor count.
U.S. Department of Commerce: Documentation on the CHIPS and Science Act, verifying the $280 billion overall legislative package and the $52.7 billion directly earmarked for domestic semiconductor revitalization.
