Acquired
TSMC's rise to a trillion-dollar monopoly was cemented by executing costly operational detours for Apple and enforcing a pure-play foundry model that strictly avoids competing with its own customers.
AI-assisted summary of TSMC founder Morris Chang — original source. Check the original for full context.
Source published:
Detailed notes
## Background This video was published on the YouTube channel Acquired on January 27, 2025. It features a rare, long-form English interview with TSMC founder Dr. Morris Chang in Taiwan, where he discusses crucial, previously undocumented moments from his memoirs regarding TSMC's history, including relationships with Apple and NVIDIA.
## TL;DR The episode chronicles the strategic history of TSMC through the firsthand recollections of its founder, Dr. Morris Chang. It details how the company navigated a severe 40-nanometer node crisis and resolved a major dispute with NVIDIA's Jensen Huang over pizza in 2009. The narrative outlines TSMC's multi-billion dollar gambles on the 28-nanometer and 20-nanometer nodes, its high-stakes negotiations with Apple's Jeff Williams and Tim Cook, and the strategic refinement of the learning curve that fueled TSMC's ascent into a global semiconductor powerhouse.
## Atmosphere & style The tone is deeply reflective, authoritative, and historically profound, blending the hosts' energetic curiosity with Dr. Chang's seasoned, deliberate storytelling. It feels like an intimate, high-stakes boardroom retrospective, capturing the intense operational pressures of multibillion-dollar tech gambles alongside lighthearted, personal anecdotes. The narrative arc moves from early corporate vulnerabilities and intense customer friction to a sense of monumental triumph and industry-shaping legacy.
## Key takeaways - [00:00](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=0s) TSMC founder Dr. Morris Chang granted a rare long-form English interview following the release of Volume 2 of his autobiography. - [05:26](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=326s) Nvidia began its critical relationship with TSMC in 1997 via a cold letter sent by Jensen Huang to a P.O. Box, quickly growing into a top five customer within a few years. - [09:44](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=584s) A severe 40-nanometer manufacturing yield crisis and internal friction with major clients prompted Dr. Morris Chang to reclaim the CEO position in 2009. - [29:07](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=1747s) Upon returning as CEO, Dr. Chang resolved a massive financial and yield dispute with Nvidia at Jensen Huang's home with a settlement exceeding $100 million. - [38:32](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=2312s) Dr. Chang permanently fixed TSMC's R&D budget at 8% of revenue and aggressively tripled capital expenditures to nearly $6 billion in 2010 to prepare for the smartphone boom. - [52:22](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3142s) McKinsey & Company conducted a $2 million study for TSMC that concluded a unified functional corporate structure was superior to a split divisional layout for a pure foundry business. - [01:05:50](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3950s) Apple executives pitched a massive capacity buyout partnership to TSMC during an unexpected 2010 dinner organized by Foxconn founder Terry Gou. - [01:21:04](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=4864s) To fund Apple's multi-billion dollar 20-nanometer node development, TSMC secured corporate bonds and initially halved Apple's capacity allocation rather than cutting its shareholder dividend. - [01:36:01](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=5761s) Tim Cook defused a competitive threat from Intel in 2011 by concluding that Intel did not possess the operational mindset required to successfully function as a foundry. - [01:44:10](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6250s) TSMC's strict 'Pure Play' philosophy guarantees it never designs chips or competes directly with its own customers, contrasting sharply with Intel's business model. - [01:50:33](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6633s) Prioritizing Apple's 20nm node caused TSMC to temporarily lag behind Samsung on the 16nm node, but Apple ultimately returned the vast majority of its business once TSMC was ready. - [01:59:31](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=7171s) Dr. Chang rejected a 130-nanometer co-development deal with IBM in 1999 to preserve TSMC's independent R&D capability, a decision that eventually crippled rival UMC when they accepted it. - [02:02:19](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=7339s) Dr. Chang refined learning curve theory alongside the founders of BCG and Bain at Texas Instruments, applying it at TSMC to aggregate market volume and outscale competitors. - [02:24:16](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=8656s) The parallel structural ascents of TSMC and the ARM architecture in the mid-to-late 1980s enabled the modern fabless semiconductor design ecosystem to thrive. - [03:41:50](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=13310s) The highly integrated Hsinchu Science Park compresses the entire semiconductor supply chain, research talent, and design ecosystem into a singular, dense geographical location. - [03:41:50](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=13310s) Unlike integrated device manufacturers who decommission old plants, TSMC keeps legacy, fully depreciated Fabs running for decades to generate high-margin specialty revenue. - [03:41:50](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=13310s) The capital requirement for leading-edge chip manufacturing functions as a natural monopoly barrier, with future advanced Fabs projected to cost up to $100 billion.
## Detailed walkthrough ### [00:00](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=0s) A Hail Mary Interview and the Unreleased Memoirs
The Spring 2025 season of *Acquired* kicks off with hosts Ben Gilbert and David Rosenthal sharing the "insane and super cool" backstory of how they landed an interview with Dr. Morris Chang, the 93-year-old legendary founder of TSMC. After becoming obsessed with semiconductors during their TSMC episode four years prior—and tracking the industry through subsequent episodes on Nvidia, Qualcomm, Arm, and Synopsis—the hosts decided to throw a "Hail Mary." They asked friend of the show Jensen Huang if he would approach Dr. Chang on their behalf. Despite his own massive workload, Jensen agreed, paving the way for a 48-hour whirlwind trip to Taipei where Ben and David recorded the conversation directly from Dr. Chang's office, right alongside TSMC's heavy manufacturing presence in Hsinchu Science Park.
The timing of the interview perfectly aligns with a major literary milestone for Dr. Chang. A couple of months ago, after a 26-year hiatus following his first book, he published Volume 2 of his autobiography. Because it was written in traditional Chinese and remains unpublished in the Western world, the hosts had to rely on an unpublished English translation funded by Tyler Cowen and Emergent Ventures and translated by Karina Bao. The ensuing conversation focuses tightly on critical inflection points highlighted in the memoir, including TSMC's foundational relationships with Apple and Nvidia.
* **TSMC Financial Milestone (1995):** Exceeded $1 billion USD in revenue just eight years after founding. * **The Translation Project:** Funded by Tyler Cowen's Emergent Ventures and translated by Karina Bao; currently unavailable to the general public in English. * **Acquired Community Notice:** Listeners can sign up at `acquired.fm` for monthly episode drops, past corrections, and a hint-based guessing game for upcoming episodes.
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[03:26](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=206s) A Letter from a Fledgling Nvidia
Dr. Chang recounts that his historic relationship with Jensen Huang began in 1997 with a simple letter sent to TSMC's post office box in Hsinchu. At the time, Nvidia was a tiny four-year-old startup with roughly 50 to 60 employees facing a severe threat of bankruptcy. Jensen wrote that they had designed incredibly promising graphics chips and were searching for a foundry partner. They had reached out to TSMC’s San Jose sales office but were met with total silence. Jensen explicitly pleaded for Dr. Chang to contact him directly so Nvidia could do business with the manufacturing giant.
The letter simultaneously piqued Dr. Chang's curiosity and "irritated" him. He had strictly instructed his sales teams never to be negligent with future customers, no matter how small they seemed. Given that TSMC was already a booming ten-year-old enterprise with thousands of employees and over $1 billion in revenue, the San Jose office had simply overlooked the small startup.
* **Nvidia's Size in 1997:** 4 to 5 years old, 50–60 employees, and on the brink of bankruptcy. * **TSMC's Size in 1997:** Over a decade old, thousands of employees, and pulling in well over $1 billion in revenue.
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[06:22](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=382s) "Quiet, Morris Chang is Calling Me!"
Traveling to California the very next week, Dr. Chang decided to call the phone number printed on Jensen's stationary without giving any advanced notice. Jensen picked up the phone himself, surrounded by a chaotic wall of background noise as he loudly argued with his staff. The moment Dr. Chang introduced himself, Jensen immediately shouted to his noisy room, "Quiet, Morris Chang is calling me!"
A meeting was set for the following day. Dr. Chang remembers being immediately struck by Jensen's extreme articulateness, raw optimism, and striking frankness. Jensen openly admitted Nvidia was in dire financial straits but boldly claimed that the graphics chip they needed fabricated would not only save the startup, but turn them into a "major customer" of TSMC. To Dr. Chang, this was a remarkably audacious statement, as crossing that threshold meant a small company would need to generate at least $50 million a year in revenue for TSMC. Jensen's prediction came true with absolute accuracy; the highly successful gaming chip saved Nvidia from bankruptcy and propelled them into TSMC's top five largest customers within two to three years.
* **The Major Customer Threshold:** Required a company to generate at least $50 million USD in annual revenue for TSMC. * **Partnership Timeline:** Within 2 to 3 years of their first meeting, Nvidia became one of TSMC's top five customers.
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[09:44](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=584s) The 2009 Crisis and the Yield Problem
The hosts shift the conversation to 2009, a turbulent period regarding the 40-nanometer node where development delays were costing key customers like Nvidia significant time and money. Dr. Chang explains that this crisis unfolded during a period when he had stepped away from the CEO role to serve purely as Chairman, handing the chief executive responsibilities to a designated successor. The 40-nanometer issue was a double-edged sword: it was both a technical manufacturing problem and a severe quality problem.
The acting CEO, leaning on the defensive arguments of TSMC’s director of quality, stubbornly insisted to Dr. Chang and to customers that TSMC was not at fault, refusing to offer Nvidia any financial concessions or structural remedies. Meanwhile, the manufacturing "yield problem"—meaning the percentage of functional chips coming off the silicon wafers was agonizingly low—was crippling the entire industry. Because Nvidia was arguably the single largest customer utilizing the 40-nanometer node at the time, they bore the brunt of the damage. Becoming increasingly impatient with the unresolved controversy and noticing other corporate friction points popping up, Dr. Chang made the monumental decision to step back in and reclaim the CEO position in 2009.
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[12:59](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=779s) Reclaiming the CEO Ship and the Hidden Layoffs
Upon retaking the CEO title, Dr. Chang immediately called TSMC's top customers, including Qualcomm and Nvidia, to smooth over relationships. Jensen remained friendly but firm, reminding Dr. Chang in a "very serious tone" about the lingering quality and delivery disasters on the 40-nanometer node. Dr. Chang promised he was treating it as an absolute priority and requested a couple of weeks to investigate. Simultaneously, he had to combat a collapsing gross margin percentage, caused by the previous management committing to rigid price-drop schedules with customers without driving down internal manufacturing costs at an equivalent rate.
However, the most pressing emergency—and the true catalyst that triggered Dr. Chang to seize back control—was an internal labor crisis. The previous CEO had quietly terminated roughly 600 to 700 employees under the guise of "poor performance reviews." TSMC had a sacred cultural history of never conducting layoffs; their standard procedure for struggling employees was a six-month probation period that usually resulted in coaching, retention, or internal department transfers.
* **The Disguised Layoffs:** 600 to 700 employees terminated by the previous CEO using performance metrics during the 2008 financial crisis. * **TSMC's Standard Probation Policy:** A 6-month period where employees are coached or transferred; outright firing was historically almost nonexistent. * **The Financial Squeeze:** Gross margin percentages were actively plummeting because price cuts for customers outpaced TSMC's internal manufacturing cost reductions.
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[17:30](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=1050s) Protests, Soy Milk, and Executive Realignment
Dr. Chang notes that when the 2008 global financial crisis hit, the semiconductor sector suffered a massive drop in revenue. Inexperienced CEOs often make a "knee-jerk reaction" to lay off staff to save immediate capital, even though the relentless nature of Moore's Law dictates that skilled human capital will always be needed when the market rebounds. Reflecting on his time as a top manager at Texas Instruments in the early 1970s, Dr. Chang recalls arguing against performance-based layoffs because they are entirely subjective, relying on hundreds of individual supervisors. Furthermore, because severance expenses generally cost half a year's pay and training a new employee takes another six months, laying people off when you will inevitably need them back within a year makes terrible financial sense.
The fallout from the previous CEO's terminations manifested directly on Dr. Chang's doorstep. Hundreds of disgruntled laid-off workers arrived at his private home to protest. The local police department deployed 50 to 60 officers to maintain order as neighbors struggled to pass. A month later, with the issue still unresolved, 25 protestors staged an overnight sleepover in a small park a block away. Moving deeply out of empathy, Dr. Chang's wife woke up at 6:00 AM, walked to a neighborhood market with a bodyguard, bought enough traditional Chinese breakfast—fried bread, buns, and hot soy milk—for all 30 protestors, and hand-delivered it to them in the park. Touched by the gesture, the thankful protestors promised her they would call off their planned march to the President’s Mansion.
Dr. Chang reveals he had warned the previous CEO ahead of time that if he wanted to downsize, he had to bring it before a special board meeting, knowing the board would block it. The CEO bypassed this directive by claiming the firings were performance punishments rather than a systemic layoff. Despite this insubordination, Dr. Chang handled the transition gracefully. He chose not to fire the executive, keeping him at the same job grade, salary, and bonus structure, but reassigned him to serve as the president of TSMC's "new businesses" division, which focused on high-hope alternative sectors like solar cells and LEDs.
[26:30](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=1590s) The Irony of New Businesses and the Real $600 Billion Market
The conversation opens with a discussion on the irony of semiconductor companies hunting for entirely new business ventures when their core market holds the greatest potential. It is noted that manufacturing integrated circuits grew into a massive $600 billion-a-year market. Compared to this juggernaut, fields like solar energy and LEDs represent only a small fraction of that value. While the speaker acknowledges knowing all along that integrated circuits would be a great business, back in 2009, alternative sectors like solar and LED still appeared incredibly promising.
The pursuit of these new businesses ultimately faltered for distinct reasons. The solar cell initiative failed to take off for TSMC because "China ruined it" by heavily subsidizing the industry, crashing prices to an extremely low level where they remain today, allowing China to gain control of that market. Meanwhile, the LED venture ran into barriers because its overall market size was smaller than solar, and a few select companies strictly controlled the essential patents, refusing to let up on their grip. Consequently, the executive who had been appointed to spearhead these new business segments realized the assignment was a dead end and resigned. He later transitioned to MediaTek, where he currently serves as vice chairman and CEO.
* Market Scale: Semiconductors became a $600 billion-a-year market, dwarfing alternative sectors like solar and LED. * Solar Business Collapse: Heavily subsidized Chinese competition caused solar cell prices to plummet, leading to China controlling the sector. * LED Market Barriers: Growth was stifled by tight patent pooling controlled by a small handful of restrictive companies. * Executive Transition: The CEO of TSMC's new businesses left after the projects failed and became the vice chairman and CEO of MediaTek.
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[29:07](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=1747s) Resolving the Nvidia Crisis over Pizza and Salad
Returning to the pivotal moments of 2009, after rehiring laid-off workers and restoring the company’s traditional vision, the focus shifts to resolving a high-stakes manufacturing yield dispute with Nvidia. During the first four to five weeks after stepping back into the CEO role, the speaker spent nearly half of his time trying to fix the Nvidia crisis. It was a massive team effort involving salespeople, technical staff, and engineering lines, as the issue impacted critical 40-nanometer node progression—a vital step for Moore's Law, without which TSMC could not advance to the 28-nanometer node. Because Nvidia had "borne the brunt of the damage," resolving the dispute fundamentally came down to money.
After weeks of deep intelligence gathering and analyzing demands from Nvidia’s own furious clients, a fair compensation number was calculated. A month into the job, an email was sent to Jensen Huang: "I'm coming to Silicon Valley next week... I will be at your home at 6:00. Let's have just salad and pizza." Jensen immediately replied asking when they would actually discuss business. To ensure the evening stayed orderly, a strict timeline was set: pizza at 6:30 PM, followed by a move to Jensen's home study at exactly 8:00 PM. The schedule was followed perfectly. Jensen's wife, Lori, prepared the salad, and the pizza arrived from outside. At the top of the hour, the speaker checked his watch and told Jensen it was time to step into the study.
An offer "on the order of a 100 million dollars"—specifically, more than 100 million—was put on the table with a strict 48-hour expiration window. There would be no bargaining or arguments; if rejected, the dispute would head straight to an independent arbitrator, an outcome Jensen had originally proposed to the previous CEO. The previous CEO had offered Nvidia "zero," stalling progress, but this new calculated figure was designed to be genuinely fair to both sides. Jensen accepted the terms within two days. This resolution saved a foundational partnership, paving the way for billions of dollars in subsequent business. The speaker views this as a great success of mutual problem-solving and proudly included the story in his autobiography.
* Resolution Timeline: The dispute took nearly half of the CEO's time during his first month back in office. * Technical Significance: Fixing the 40nm node was required before TSMC could successfully transition to the 28nm node. * Settlement Terms: The financial offer was greater than $100 million, presented with a strict 48-hour deadline to accept or face arbitration. * Dinner Logistics: Held at Jensen Huang's house at 6:30 PM with salad made by his wife Lori, shifting to the business study at 8:00 PM sharp.
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[36:07](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=2167s) Podcast Sponsorship: JP Morgan Payments
The host takes a moment to thank their presenting partner, JP Morgan Payments, highlighting how critical payment logistics are to global supply chains. A new statistic shows that 18 of the top 20 largest corporates are payments clients of JP Morgan, giving them unparalleled visibility into global trade flows. The host notes that traditional manufacturers face a constant balancing act: they need to pay suppliers quickly to maintain healthy relationships, yet they also need to optimize their own working capital. Meanwhile, smaller suppliers frequently struggle with cash flow while waiting 30, 60, or 90 days to receive payment.
JP Morgan addresses this by transforming traditional supply chain financing into a dynamic, technology-driven solution. Their platform allows buyers to offer suppliers early payments at favorable rates based on the buyer's strong credit rating, with the flexibility to toggle between supply chain finance and dynamic discounting. To illustrate, the host shares an example of a lumber mill supplying furniture manufacturers. Instead of waiting 60 days to get paid on multi-million dollar monthly invoices—which restricts the mill's ability to maintain timber inventory—JP Morgan’s solutions allow the mill to receive payment in just days, while the furniture manufacturer keeps its original payment terms. This win-win infrastructure is currently utilized by over two million suppliers globally to build supply chain resilience.
* Client Reach: 18 of the top 20 largest global corporations utilize JP Morgan Payments. * Payment Terms: Traditional supply chains often force smaller suppliers to wait 30 to 90 days for invoice clearance. * Global Footprint: More than 2 million suppliers worldwide utilize JP Morgan's supply chain finance solutions to stabilize cash flow.
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[38:32](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=2312s) The 28-Nanometer "Sweet Spot" and Boardroom Battles
The conversation moves to the 28-nanometer node, the milestone where TSMC truly established its leading-edge industry command. The speaker recalls past struggles at Texas Instruments (TI), where as the head of worldwide semiconductors, his requests to raise the R&D budget from 4.8% to 5.5% of revenue were repeatedly denied. Determined to avoid annual budget bickering at TSMC, he decided to eliminate yearly negotiations between the R&D director and the CEO by setting a fixed, unchanging percentage. He "literally picked a number" out of the air—bumping their existing 6% or 7% rate up to a flat 8% of revenue, guaranteed regardless of economic recessions. The R&D director was ecstatic, later repeating many times over the next 15 years that this single policy was the best thing TSMC ever did because it protected planned resources and headcount from arbitrary cutbacks.
With their funding secured, the R&D team grew bold and pitched 28nm as the ultimate "sweet spot." Using a sports analogy, they compared it to hitting a tennis ball perfectly on the sweet spot of a racket. The speaker, who used to play tennis 40 years prior, knew that exact feeling and chose to trust the technical data. However, while the 8% R&D rule passed the board smoothly, the speaker's subsequent plan to triple capital expenditures—ramping yearly Fab construction spending from a decade-long baseline of $2 billion or $2.5 billion up to nearly $6 billion in 2010—provoked intense resistance from the board of directors.
Because three-quarters of the board consisted of independent overseas directors from the US and England, agendas were emailed two weeks early, followed by an off-the-record dinner the night before meetings. But betting a massive portion of the company’s cash on 28nm was so controversial the directors bypassed dinner entirely. They contacted the American general counsel, who served as board secretary, demanding an immediate call with the chairman because they disliked the capital hike. A week before the meeting, the speaker confronted them on the phone. Despite presenting market forecasts and strategic business inputs, the directors remained unconvinced. Finally, the speaker had to assert his authority directly: "Look, I heard you, but I am still the guy that's responsible for the operation of the company. So you need to let me go ahead with this one." The board relented, and the enormous gamble perfectly coincided with the explosive dawn of the smartphone era, though the speaker candidly admits he did not personally foresee just how massive the smartphone opportunity would become.
* Historical R&D Benchmarks: At Texas Instruments, R&D was capped at 4.8% of revenue; at TSMC, it was permanently fixed at 8% to prevent yearly budget disputes. * CapEx Ramping: TSMC tripled its capital expenditures in 2010, skyrocketing from a $2–2.5 billion baseline up to nearly $6 billion. * Board Composition: Over 75% of TSMC's board members were independent international directors, primarily from the United States and England. * "Sweet Spot" Nodes: The 28-nanometer node was identified by engineers as the first major structural sweet spot, a phenomenon later repeated by the 7-nanometer node.
[52:22](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3142s) The Flawed Divisional Org Structure & TSMC’s Operational Split
The segment opens with a discussion on the background of C.C. Wei, the current Chairman and CEO of TSMC. Between 2005 and 2009, under the leadership of then-CEO Rick Tsai, TSMC’s operations were split into two distinct groups: Advanced Technology and Mainstream Technology. Mark Liu was appointed to head the Advanced group, which boasted roughly 10,000 employees, while C.C. Wei was handed the "lesser one"—the Mainstream group, which was slightly smaller with 7,000 to 8,000 employees. Each group managed its own small business development section of about 30 to 40 people.
When the speaker returned as CEO in 2009, he immediately sought to undo this structural split, having never believed it was a good idea. He recalls a historical precedent from 1996 when Don Brooks, an American who served as TSMC's president, grew tired of running the company after an unexpectedly long six-to-seven-year stint in Taiwan. Brooks wanted to implement a divisional structure modeled after Texas Instruments (TI), which had separate departments for germanium transistors, silicon transistors, bipolar integrated circuits, and MOS integrated circuits.
However, the speaker strongly opposed a divisional structure for a foundry business like TSMC. In a pure foundry model, the company serves the exact same pool of customers across different facilities, making it highly impractical to divide the company by manufacturing plants. When Brooks pushed back, the speaker suggested bringing in McKinsey & Company to consult. After two months and a couple of million dollars, McKinsey returned with the same conclusion: a functional structure was superior. When a defensive Brooks demanded to know "one big company that's functionalized," McKinsey immediately shot back with "Boeing"—a brilliant, if technically imperfect, answer. The speaker highlights that while Boeing does have commercial and government divisions, they don't separate operations by individual airplane models like the 707, 747, or 737. Dividing TSMC by individual fabs would have been exactly like that.
Despite this 1996 debate, Rick Tsai chose to "tread the same ground" in 2005. The speaker explains his hands-off philosophy as Chairman at the time: "sometimes you have to let the CEO make his own mistakes and learn from them," provided the mistake doesn't drive the whole company "down the drain."
- **Advanced Technology Group:** Managed by Mark Liu, consisting of roughly 10,000 employees. - **Mainstream Technology Group:** Managed by C.C. Wei, consisting of 7,000 to 8,000 employees. This group focused on keeping utilization high on older fabs with larger nanometer nodes, servicing legacy clients, and making specialized components like automotive parts and CMOS camera sensors. - **Customer Overlap:** Core clients like Qualcomm and Apple routinely utilize both mainstream and advanced technologies simultaneously (e.g., placing the primary A16 Pro processor on the leading edge while sourcing secondary chips from older nodes).
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[01:00:55](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3655s) Reorganizing Business Development & Cultivating Executive Talent
Upon taking the reins again as CEO in 2009, the speaker set out to consolidate the split operations into a single entity and establish a robust, unified marketing arm. He consciously chose the term "Business Development" over "Marketing" because it carried a far more effective translation in Chinese. The reorganization left TSMC with a wealth of phenomenal operational and manufacturing talent—leaders skilled at taking developed tech from R&D and scaling it into mass production—but left a critical vacuum in business development. Neither Mark Liu nor C.C. Wei had any formal marketing experience.
The speaker first offered the newly consolidated Business Development job to Mark Liu, explaining that it was a strategic opportunity to fill a gap in his resume and become a truly well-rounded executive capable of leading the company in the future. To the speaker's disappointment, Liu flatly declined the offer, exclaiming, "my goodness, I have 10,000 people reporting to me now, you want me to take a job that has only 60, 70 people in it?"
To contextualize this reluctance, the speaker shares an internal analogy he kept to himself during that conversation, comparing the situation to the Nixon administration. Henry Kissinger, as National Security Advisor, only had a couple hundred people reporting to him, while the Secretary of State commanded thousands of staff worldwide—yet Kissinger undeniably wielded far more real power. The speaker notes that outside of his four-year absence from the CEO seat, he had personally handled TSMC’s high-level business development, constantly living on an airplane to pitch industry giants like Nvidia's Jensen Huang and Broadcom. "That was my pleasure," he reflects, "I really liked it." Following Liu's refusal, the speaker offered the position to C.C. Wei, who accepted it "delightfully" and rode that path to eventually becoming the current Chairman and CEO of TSMC.
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[01:05:50](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3950s) An Unexpected Dinner Guest from Apple
The narrative shifts to a pivotal evening in November 2010. Following a long board meeting at TSMC's headquarters in Taipei, the speaker arrived home around 6:30 PM. He was surprised to find his wife, Sophie, waiting for him right at the door—a rare occurrence. She informed him that her second cousin, Terry Gou, had called earlier that afternoon to announce he was coming over for dinner at 8:00 PM and was bringing an Apple vice president along with him.
For international contexts, the speaker notes that Terry Gou was the founder and chairman of Hon Hai Precision Industry (known globally as Foxconn), a massive supplier to Apple and one of the wealthiest men in Taiwan. While Sophie was lovely, she had little interest or baseline knowledge regarding her husband's corporate world and completely missed the monumental gravity of Foxconn's billionaire founder showing up with an executive from Apple. For months, the speaker and his team had been quietly strategizing on how to win Apple's business as the iPhone skyrocketed in popularity. However, knowing Apple's fiercely "close-mouthed" corporate culture, they knew they couldn't just knock on their door. "They will come to see you when they are ready," the speaker remarks, a truth he still holds today.
Though 8:00 PM was quite late for dinner, the speaker readily agreed to wait. He knew Terry Gou wouldn't bring just any "ordinary" vice president to his private residence; it had to be someone uniquely vital to TSMC's future.
- **The Relationship:** Terry Gou and the speaker's wife, Sophie, are second cousins who share the same grandparents. - **The Dinner Setup:** The household's Chinese cook was told to simply whip up a few extra traditional dishes, as Terry Gou grew up on Chinese food and they assumed the American guest would enjoy it too.
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[01:11:31](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=4291s) Jeff Williams' Direct Pitch & The 20-Nanometer Detour
The mystery guest turned out to be Jeff Williams, who was not a mere vice president but the Chief Operating Officer (COO) of Apple. Williams proved to be an incredibly straightforward, no-nonsense executive who completely skipped standard corporate chitchat. Almost the exact moment he sat down at the dinner table, Williams launched directly into his business pitch: Apple wanted to buy out TSMC’s wafer capacity. The food and its quality quickly became irrelevant as Williams dominated roughly 80% of the evening's conversation, with the speaker listening intently for the remaining 20%.
During this initial pitch, Williams floated an economic framework, casually offering TSMC a 40% gross margin. The speaker kept his composure and refrained from reacting, but internally, he was underwhelmed; TSMC’s gross margin was already sitting at 45%, and the speaker had been aggressively pushing an internal campaign to drive it up to 50%.
The real shock, however, came when the conversation turned to technology nodes. TSMC was right on the cusp of launching production for its highly anticipated 28-nanometer node. When the speaker asked Williams which node Apple was looking to secure, Williams confidently answered: "twenty." This response was both a massive surprise and a distinct disappointment for the speaker. According to the natural progression of Moore's Law, the logical leap after 28-nanometer was 16-nanometer. Settling on a 20-nanometer node meant committing to a "half-step" and an operational detour. While the engineering work on a 20-nanometer node would eventually offer some transferable insights for the subsequent 16-nanometer node, it was still a costly distraction. At that point in time, TSMC's R&D department simply did not possess the resource bandwidth to develop two major nodes simultaneously.
- **Gross Margin Dynamics:** Apple offered a 40% margin, which Williams likely viewed as generous, while TSMC was tracking at 45% and aiming for 50%. TSMC eventually surpassed the 50% threshold years later due to tech leadership and the macro effects of the COVID-19 pandemic. - **Foundry Landscape (2010):** At the 28-nanometer node, TSMC was the undisputed leader among pure-play foundries and ahead of players like Texas Instruments, but they were still trailing behind the industry giant, Intel. Apple was not actively considering Intel for this business at the time.
<ElicitationsGroup message="To explore the continuation of TSMC's history and its partnership with Apple:">
<Elicitation label="Discover how the Apple and TSMC deal was finalized" query="How did the negotiations between TSMC and Apple progress after this dinner, and what were the final terms of their partnership?"/> <Elicitation label="Examine TSMC's technological leap from 20nm to 16nm" query="How did TSMC manage the technical transition from the 20-nanometer half-step to the 16-nanometer node while dealing with R&D resource constraints?"/> </ElicitationsGroup>
[01:19:34](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=4774s) The Apple Conundrum and the Distraction of 20 Nanometers
TSMC faced a massive operational conundrum in the wake of expanding its capital expenditure to $6 billion the previous year to go "all in" on 28-nanometer technology. The company was actively pitching Apple to become its largest customer ever for this 28-nanometer node. However, Apple countered with an entirely unexpected proposition: they wanted TSMC to pivot and build chips on a 20-nanometer node, a technology TSMC had not planned to spend any money on. This presented a high-stakes dilemma over whether landing Apple was worth a massive, multi-billion dollar distraction.
The situation was nuanced, as TSMC had initially forecast a very large market for its 28-nanometer node independently. When the company originally planned to vastly increase its capital spending, it did not include Apple in its 28-nanometer roadmaps at all. Apple's sudden arrival came as a surprise to the executive team. The fundamental question remained: was TSMC willing to shift focus and spend roughly $10 billion over the next few years developing a 20-nanometer process specifically for Apple when it wasn't on the company's radar?
- TSMC spent $6 billion in capex on 28nm the year prior to the Apple discussions. - The company estimated it would cost on the order of $10 billion over the next few years to develop the 20nm node for Apple.
[01:21:02](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=4862s) Planting Seeds with Goldman Sachs and Funding Strategy
To navigate the immense capital requirements of the Apple deal, TSMC leveraged a long-standing relationship with investment banking giant Goldman Sachs. Having anticipated that the company would eventually require top-level investment banking advice, a strong connection had been established very early in TSMC's existence. In fact, a personal link existed as a board director of Goldman Sachs, and the two firms had previously collaborated on TSMC's American Depositary Receipts (ADR) public listing in New York.
This New York public listing created a separate market for the stock. Even during the discussion, TSMC's New York ADR traded at a notable 20% premium over its ordinary Taiwan stock. To prevent market arbitrage, TSMC implemented a strict rule where the board had to approve any conversion of ordinary Taiwan shares into ADRs—a permission the board did not grant easily.
With the Apple deal demanding capital well beyond the recently increased budget, TSMC weighed several financial strategies with Goldman Sachs. The leadership considered cutting their modest dividend, executing a new stock offering in Taiwan or the United States via ADRs, or borrowing money through corporate bonds. Another option was to simply fill a portion of Apple's massive order. Ultimately, TSMC decided against cutting the dividend or issuing new stock, choosing instead to secure funding entirely through borrowing and by cutting Apple's capacity allocation in half.
- TSMC's New York ADR maintained a 20% price premium over its ordinary Taiwan stock. - The financial plan chosen involved keeping the dividend intact, avoiding new stock dilution, and relying on corporate bonds. - TSMC decided to accept only half of the total chip volume that Apple initially requested.
[01:25:32](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=5132s) The History of Capacity Shortages and "Confiscating" Deposits
The practice of modifying customer volume requests or demanding strict commitments was rooted in TSMC's early operating history. Throughout the 1990s and the first 10 to 15 years of its existence, TSMC was short of manufacturing capacity almost all the time. Customers frequently claimed they wanted to buy "zillions of chips" and lock up entire wafer runs because they had no skin in the game regarding TSMC's capital expenditures. To protect the company's financial risk, a system was instituted requiring cash deposits from customers.
The sales team in San Jose was instructed to tell clients that TSMC would strictly require a deposit and would go as far as to "confiscate" the money if the customer failed to take delivery of the wafers. The word choice caused a joyful uproar among the salesmen, who had never experienced that level of leverage over a client before. While the term was used aggressively to ensure commitment, TSMC never actually ended up keeping a customer's deposit.
This policy proved critical during the dot-com or "internet recession" of the early 2000s, an era when speculative startups like pets.com failed, trickling economic damage back down to the semiconductor industry. TSMC's revenues plummeted and took nearly three years to recover, starting in the first quarter of 2001 and finally bouncing back by the third quarter of 2003. Many customers had placed deposits anticipating good times, and TSMC had already built out fabs or acquired other companies to meet that demand. When those customers no longer needed the output, TSMC chose not to confiscate the funds, but rather allowed them to defer their demand until they eventually used up their deposits.
- The semiconductor recession triggered by the dot-com bust lasted exactly three years for TSMC (Q1 2001 to Q3 2003). - TSMC's policy allowed customer deposits to be deferred and spent later rather than being permanently seized during downturns.
[01:30:15](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=5415s) Negotiating with Jeff Williams and the Dividend Debate
In early 2011, TSMC moved forward with its plan to tell Apple it would only supply half of their requested wafer capacity. The newly appointed business development director, CC, was given the privilege of breaking the news to Apple's lower-level purchasing agents. Their immediate response was blunt: "You must be crazy." CC declined to comment further to them and brought the feedback straight back to executive leadership, prompting a direct trip to Apple's headquarters to speak with Jeff Williams.
During the meeting in Cupertino, Apple was told that TSMC's prudent financial planning required them to issue corporate bonds and limit their initial exposure to half of Apple's demand. Jeff Williams remained quiet and analytical, offering only one alternative suggestion: "Well, I think you can eliminate your dividend, you know your shareholders will understand that."
The proposal was flatly rejected. High-level consulting advice had revealed that approximately one-third of TSMC's investor base was strictly interested in the company's dividend payments. Eliminating it would have triggered a massive institutional sell-off, causing the stock to "drop like hell." Williams accepted the refusal relatively willingly without causing a major problem, letting the matter rest. The volume and financing terms were officially settled, though TSMC still had to borrow billions of dollars to support the remaining half of the demand.
- The meeting regarding the dividend elimination took place at Apple's headquarters in Cupertino. - Approximately one-third of TSMC’s shareholders were identified as dividend-focused investors, blocking the option to cut payouts.
[01:33:38](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=5618s) Sponsored Segment: ServiceNow and the Platform Approach to AI
The hosts pause the conversation to reintroduce the story of ServiceNow, highlighting its trajectory into one of the best-performing public software companies in history. Following the release of ChatGPT in November 2022, the corporate landscape saw an explosion of fragmented, one-off B2B artificial intelligence tools targeting specific departments. ServiceNow's CEO, Bill McDermott, aptly termed this sudden influx a "hornets' nest of complexity," as businesses already plagued by excessive software found their problems compounded by disjointed AI tools.
ServiceNow succeeded by building its AI directly onto a unified enterprise platform and data infrastructure. Anticipating the shift when he became CEO in 2020, McDermott consolidated ServiceNow’s internal R&D AI projects and acquired Element AI, a company founded by a Turing Award winner. Years of deep platform integration meant that when large language models emerged, ServiceNow was uniquely prepared. Today, the company offers interconnected AI agents deployed across IT, HR, Finance, CRM, and supply chain operations, driving significant back-end productivity gains for a huge number of Fortune 500 companies.
- ChatGPT was released in November 2022, prompting a massive wave of fragmented B2B AI applications. - Bill McDermott took over as CEO of ServiceNow in 2020 and acquired Element AI to centralize the company's AI efforts.
[01:36:01](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=5761s) Intel’s Interception and the Tim Cook Lunch Meeting
The massive debt taken on by TSMC to build fabs for Apple was a defining "bet the company" move, reminiscent of the bold strategies often deployed by Nvidia's Jensen Huang. However, the leadership remained deeply confident they wouldn't lose. The entire arrangement faced a sudden shock in February 2011 when Jeff Williams called to abruptly halt negotiations. He informed TSMC that they needed to pause all discussions for two months because the "highest level of Intel" had approached Tim Cook directly, asking Apple to consider Intel for its mobile chips.
At the time, Intel was the exclusive supplier for Apple's Mac line, giving them an incredibly powerful existing relationship. Despite the pause, TSMC leadership remained unconcerned. By 2011, Intel was no longer a legendary juggernaut that commanded absolute fear. During the late 20th century, competing against Intel and Moore's Law would make a foundry "tremble with fear"—which is precisely why TSMC was originally founded as a PurePlay foundry to avoid direct, head-to-head architectural competition. Yet by 2011, the tides had shifted. TSMC evaluated its standing and concluded it was at parity with Intel on technology, superior in manufacturing execution, and held far greater customer trust.
After a month of silence, a visit to Silicon Valley was arranged in mid-March 2011. An email was sent to Jeff Williams requesting a meeting. Williams replied that he would be away, but added, "I have asked Tim Cook to see you." Having an executive delegate their own boss to host a visitor was a rare corporate phenomenon. Upon arrival, Tim Cook took the TSMC leadership to the corporate cafeteria, where they grabbed trays, selected their food, and carried them back to Cook's office. Over lunch, Cook completely defused the tension regarding the Intel threat, offering a brief but deeply satisfying conclusion: "There's nothing to worry about because Intel just does not know how to be a foundry."
- Intel approached Apple regarding the iPhone chip business in February 2011, causing a temporary two-month pause in TSMC negotiations. - The mid-March follow-up meeting resulted in a private lunch with Tim Cook in his office using cafeteria trays. - Today, Intel does not manufacture chips for the iPhone; TSMC manufactures 100% of Apple's custom silicon chips.
[01:44:10](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6250s) Customer Trust and the Anti-Intel Sentiment in Taiwan
The discussion centers around the true meaning behind an interpretation of a statement regarding Intel and Apple. Looking back, the speaker believes that customer trust was the defining factor. Before Apple became a customer of TSMC, the speaker was deeply familiar with the PC manufacturing ecosystem in Taiwan. He notes that none of the Taiwanese PC makers liked Intel. Intel consistently acted as if they were "the only guy" in the microprocessor business. While Intel was trying to run its business, its business model presented a fundamental conflict of interest: they designed their own chips, which meant they were in direct competition with the chip designers at Apple, Nvidia, and other major tech firms. TSMC's extreme core philosophy, by contrast, is that it never competes with its customers.
The speaker clarifies that when Apple's leadership made requests, TSMC learned to respond to every single one. Some of the customer demands were "crazy" or "irrational," but TSMC's policy was to respond to each request courteously. In stark contrast, Intel had a reputation for never doing that. Because of this rigid attitude, the tech suppliers and makers in Taiwan actively wished for an alternative supplier, as none of them genuinely trusted or liked Intel.
- TSMC’s core business model is a "Pure Play" foundry, meaning they explicitly choose not to design chips or compete with their customers. - Intel's dual role as both a chip designer and a manufacturer created a massive conflict of interest for companies like Apple and Nvidia.
[01:46:47](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6407s) The Apple Pricing Negotiations and the Three-Star Joke
The 20-nanometer project with Apple ultimately worked out, but the financial and logistical negotiations were incredibly intense. Jeff Williams from Apple came in person to discuss pricing. TSMC had done extensive homework on their own internal cost structures to determine the absolute minimum price they could accept. Jeff laid out his reasoning, explaining that he had strict component cost targets he had to hit for Apple's own product goals.
Once the pricing terms were finally settled, the speaker suggested celebrating by going out to dinner at a prestigious Taipei three-star restaurant. Jeff Williams jokingly quipped, "Ah, if you didn't like the pricing we probably could be going to a McDonald's." The speaker notes with a laugh that a fast-food pivot was never actually in his mind, but it captured the playful relief after a grueling negotiation. When asked what drives these calculations, the speaker notes that unit cost is the foundational element, closely followed by gauging whether the desired price will actually be accepted by the customer.
- TSMC currently commands gross margins in the mid-50% range (around 55% to 57%), which is higher than during the speaker's original tenure. - Many of TSMC's fabless customers enjoy even higher gross margins, reaching 70% to 80%. - Deciding how value capture is distributed between the chip designer and the manufacturer is a deeply personal task for a CEO; currently, CC Wei holds that responsibility at TSMC.
[01:50:33](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6633s) The Shocking 16-Nanometer Detour and Samsung's Surprise
Pursuing the 20-nanometer node for Apple came with a massive, painful tradeoff. Around 2011 and 2012, TSMC's R&D department was not yet strong enough to develop two major nodes simultaneously. By prioritizing and accepting the 20-nanometer technology node for Apple, TSMC was forced to delay its own 16-nanometer development. Meanwhile, Samsung—having lost some of its prior electronic components business—completely skipped the 20-nanometer generation. Because they didn't have to build 20-nanometer capacity, Samsung jumped straight ahead and beat TSMC to the 16-nanometer finish line.
The speaker describes a moment of "real shock" when he discovered that Apple had placed its very first wave of 16-nanometer orders with Samsung. TSMC had invested tens of billions of dollars in equipment, counting on converting 80% to 90% of that machinery directly over to the 16-nanometer line. Finding out Apple went to their bitter rival left TSMC's massive capital investments in severe jeopardy.
> "We invested so much... it was still tens of billions of dollars I think... and now if Apple went to Samsung for the 16, where did that leave us?"
The speaker immediately emailed Jeff Williams to express his deep distress, explaining that TSMC had bought all this equipment under the assumption that Apple would buy the 16-nanometer chips from them. Jeff replied instantly, telling him not to worry and promising to fly out to San Jose the following week to explain. True to his word, Jeff arrived and assured TSMC: "As soon as you're ready with your 16, we buy from you. We'll buy all the needs from you." This completely relieved the speaker. TSMC finalized its 16-nanometer process about six months later, and the vast majority of Apple's 16-nanometer business did indeed return to TSMC.
[01:55:03](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6903s) The IBM and Qualcomm Story: Predicting the Industry from Hsinchu
Sitting at TSMC headquarters in Hsinchu, the speaker realized that running a pure-play foundry gave him a unique vantage point to see tectonic industry shifts before they actually happened. He illustrates this with the story of IBM and Qualcomm. In the 1990s, Qualcomm was a rising star in the first wave of fabless semiconductor companies. Founded by Irwin Jacobs a few years before TSMC’s 1987 launch, Qualcomm was a premier "technology house" that TSMC desperately wanted as a customer.
Throughout the early to mid-1990s, the speaker frequently met with Qualcomm’s Senior VP of Operations—the title fabless companies gave their chief purchasing executives. The executive was always polite but gave TSMC very little actual business, as Qualcomm’s primary foundry partner at the time was IBM. However, around 1997 or 1998, the executive suddenly shifted gears and announced he would start using TSMC. He didn't explicitly name IBM as the discarded partner, but TSMC’s internal intelligence confirmed it. As Qualcomm’s business with TSMC rapidly escalated, the speaker knew instantly that IBM’s semiconductor division was in deep trouble, because Qualcomm and a few tiny fabless firms were the only things keeping IBM's fabs afloat.
- Irwin Jacobs founded Qualcomm a few years prior to TSMC's establishment in 1987. - IBM's loss of the Qualcomm account was the first clear signal to TSMC that IBM's manufacturing business model was failing.
[01:59:31](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=7171s) Snubbing IBM's Arrogant Co-Development Offer
Because IBM's semiconductor business was floundering, they approached TSMC in 1999 with an offer to co-develop the next generation of technology: the 0.13-micron (130-nanometer) node. Because the speaker had already predicted IBM's decline, he declined the offer instantly without a second thought. Even without that foresight, TSMC would have refused because IBM still carried an incredibly arrogant attitude, viewing themselves as the "senior partner" in any alliance.
Accepting a co-development deal with IBM meant TSMC would have to send its own engineers to IBM's facilities. The speaker knew this would destroy TSMC’s independent R&D capabilities, forcing them to become culturally integrated and dependent on a broken external process. IBM was furious at the rejection, viewing TSMC as a backward, small company from Taiwan. IBM immediately took the co-development offer to TSMC's local rival, UMC (United Microelectronics Corporation). UMC eagerly accepted the deal, a decision they would later "seriously regret" as the partnership choked their independent progress. By 1999, UMC was already tracking smaller than TSMC in volume and size.
[02:02:19](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=7339s) Refinement of the Learning Curve: Bill Bain and the BCG Partnership
The conversation transitions into learning curve theory and the vital importance of owning leading-edge technology to control one's destiny. The speaker clarifies that he did not invent or initiate learning curve theory, but he played a major historical role at Texas Instruments (TI) in refining it so a semiconductor company could use it effectively. The basic premise of the learning curve—also known as the experience curve—is simple: as a company manufactures more units of a specific item (a concept originally observed in cars and refrigerators), the unit cost drops because the workforce gains experience and efficiency. However, the speaker warns that treating this as a simple formula means you haven't truly understood its strategic depth.
The institutionalization of this theory at TI began around 1970 when Bruce Henderson, the founder of the Boston Consulting Group (BCG) and the "father of competitive strategy," called TI's CEO, Mark Shepherd. Henderson pitched the idea that BCG's experience curve could revolutionize the semiconductor industry. Since TI was the largest semiconductor company in the world at the time, Shepherd agreed to a presentation. Henderson arrived in Dallas alongside a young consultant named Bill Bain (who would later found Bain & Company).
- Mark Shepherd, the CEO of Texas Instruments, invited his COO and the speaker to attend BCG's initial corporate presentation. - Bruce Henderson was a remarkably eloquent speaker, which thoroughly impressed TI leadership and secured the joint venture.
[02:07:49](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=7669s) The Two-Year Partnership of Bill Bain and the Speaker
Impressed by the presentation, Mark Shepherd committed TI to working with BCG on operationalizing the learning curve. Bruce Henderson assigned Bill Bain to work on-site at TI three days a week, while Shepherd appointed the speaker as TI's dedicated partner for the project. The speaker assigned Bain a small office immediately adjacent to his own.
The proximity was essential because Bain required massive amounts of sensitive internal data, including detailed pricing and cost histories across multiple families of integrated circuits and transistors. For over two years, Bain would fly from Boston to Dallas every Monday morning and return either Wednesday or Thursday night to brief Bruce Henderson on his findings. Every time Bain reached a useful analytical conclusion, he would hash it out with the speaker first. The speaker notes that during this intense two-year association, he completely absorbed the strategic mechanics of the learning curve, transforming it into a vital thinking tool that he utilized for the rest of his professional career at TSMC. This foundational rule creates an industry flywheel: whoever commands the most volume scales down the learning curve fastest, achieving the lowest prices and capturing the entire market.
[02:11:07](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=7867s) The Birth of a "World Imperative"
Reflecting on the early dynamics of chip manufacturing, the hosts emphasize how internalizing the learning curve and globalization allows one to intuit that the semiconductor industry would eventually yield a single, massive winner. This structural reality paved the way for TSMC's eventual dominance. The conversation then transitions to an anecdote about Bill Bain, the founder of Bain & Company. Morris Chang recalls a pivotal moment when Bain visited him in Dallas and confided that Chang was the very first person outside of the Boston Consulting Group (BCG) to hear his plans: he was leaving BCG to start his own consulting firm.
When Chang asked why he would leave, given that BCG founder Bruce Henderson thought so highly of him, Bain responded with a phrase that stuck with Chang forever: "the world imperative." This personal, driving ambition was the catalyst for Bain's departure and marked the first time Chang had ever heard the term used in such a deeply personal context.
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[02:12:24](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=7944s) Sponsor Spotlight: Fundrise's Venture Evolution
The hosts take a moment to thank their long-time sponsor, Fundrise, and its CEO, Ben Miller. Over the three years since they first partnered in 2022, Fundrise has undergone a massive transformation. Originally recognized as the largest real estate investment platform for retail investors in the United States, Fundrise took a ambitious leap by launching a growth-stage Venture Capital fund, a move first announced right on the podcast.
While breaking into the insular venture capital industry seemed like a "crazy idea" at the time, Fundrise has successfully democratized access to premier private companies. The platform has secured pre-IPO access for regular American retail investors, allowing tens of thousands of everyday individuals to participate in the massive value creation that occurs while growth companies delay public offerings and remain private longer.
- **Key Investments:** Fundrise's venture portfolio includes major tech players such as Data Bricks, Anthropic, Canva, Anduril, and Vanta. - **Recent Success:** Portfolio company Service Titan celebrated a highly successful IPO in December, allowing retail investors to celebrate financial milestones right alongside traditional VCs, LPs, and employees. - **Platform Info:** Listeners and growth-stage founders looking for Series C or later investments can view the full portfolio at `[fundrise.com/venture](https://fundrise.com/venture)`.
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[02:14:20](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=8060s) Predicting the Fabulous Future
The discussion returns to Morris Chang, with the hosts pointing out that TSMC is essentially the only trillion-dollar company in the world located outside of the West Coast of the United States. When asked if he viewed this grand-scale, unlikely success as surprising—especially considering he started the company at age 56—Chang admits with a smile that while its ultimate size and importance exceeded his expectations, it was "not by an order of magnitude." He firmly dismisses the rumor that the original plan was to stop building after Fab 2, noting that as a serious student of the learning curve, he always intended to scale.
The hosts counter that the business initially seemed highly unfavorable; the concept of a "fabless" chip company did not exist yet, forcing TSMC to rely on integrated device manufacturers (IDMs) like Intel merely to handle their excess, low-priority Second Source manufacturing. Chang clarifies that he fully saw the fabless revolution coming, sparked by a series of distinct encounters during his final months at General Instrument.
The first glimpse came when industry veteran Gordon "Gordi" Campbell approached Chang seeking a $50 million investment from General Instrument to start a new company. When Chang asked for a business plan, Campbell admitted it was entirely in his head but promised a written draft within three weeks. Three weeks later, Campbell called back with a surprising update: he no longer needed General Instrument's $50 million because he only required $5 million, an amount he could easily raise himself. When a curious Chang asked why the capital requirement had dropped so drastically, Campbell delivered the insight that changed everything: "I'm not going to build a fab."
- **The Atmel Connection:** Shortly after the Campbell encounter, another entrepreneur seeking to manufacture wafers approached General Instrument on behalf of a startup called Atmel. - **The Operations Clashing:** Because Atmel possessed no fabrication facilities of their own, they wanted to utilize General Instrument's empty fabs. However, friction quickly arose because Atmel's founder insisted the fab be run his own way, while General Instrument's semiconductor manager insisted on running it his way. - **The Foundry Paradox:** This friction highlighted both the core difficulty and the ultimate advantage of the foundry model. The difficulty lay in satisfying numerous clients who all wanted a customized operational approach, while the advantage was the sheer abundance of potential customers. As Chang notes, a successful foundry must establish a singular, optimized workflow that "will satisfy more or less all the customers."
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[02:20:53](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=8453s) Post-Game Analysis: The Pure-Play Advantage
After thanking Dr. Chang for granting them an unusually long and generous interview, the hosts return to their home studios in Seattle and San Francisco to break down their key takeaways using their traditional "Playbook" format. They reflect on the profound historical significance of the conversation, noting that they deliberately avoided interrupting Chang's flow during the recording so he could document his story uninterrupted.
The first major realization that stands out to the hosts is the sheer genius of TSMC's foundational commitment to never competing with its own customers. While visiting the TSMC Museum of Innovation, the hosts viewed Chang's original, remarkably simple pitch decks delivered to the Taiwanese government and early investors. Right there in the bullet points was the explicit goal to be a "dedicated Pure Play Foundry."
In hindsight, this strategy looks like an unparalleled stroke of business brilliance, but the hosts deduce it was initially born out of practical necessity. At its inception, neither TSMC nor the broader ecosystem in Taiwan possessed the indigenous capabilities to design cutting-edge chips. By focusing entirely on superior manufacturing and refusing to establish an end-product division or design house, TSMC accidentally yet perfectly positioned itself to become the world's premier manufacturing partner, eventually leaving integrated rivals like Intel far behind.
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[02:24:16](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=8656s) The Coupled History of ARM and TSMC
The hosts explore the structural layout of the modern tech industry, marveling at how a trillion-dollar giant can exist without handling design, architecture, or Electronic Design Automation (EDA) tools. They point out that TSMC's meteoric rise was heavily dependent on the parallel ascent of the ARM architecture. Had Intel and its x86 architecture maintained an absolute monopoly over computing, the semiconductor value chain could not have decoupled.
For decades, the x86 world was structurally bound to Intel's fully integrated model, with AMD serving as a rare exception that eventually became a TSMC customer. However, the emergence of ARM opened an entirely new window of opportunity, providing a dominant architectural alternative for mobile phones, personal computers, servers, and modern AI chips. This shift allowed standalone design companies to thrive without needing their own fabrication plants.
- **The Apple Paradigm:** A prime example of this architectural shift is Apple. If ARM had not matured into a highly viable CPU platform, Apple Silicon would not exist, and Apple would likely still rely on Intel to manufacture the leading-edge chips powering the iPhone and Mac lines. - **The Mid-80s Tech Convergence:** The mid-to-late 1980s represented an absolute golden era for semiconductor infrastructure. A massive cluster of foundational companies—including TSMC, ARM, Synopsis, Cadence, and ASML—were all independently founded within a remarkably tight window of just a few years.
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[02:27:45](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=8865s) The Unreplicable Ecosystem of Hsinchu Science Park
The segment concludes with the hosts sharing their impressions of visiting the Hsinchu Science Park in person. While the idea that TSMC's capabilities cannot simply be airlifted out of Taiwan is frequently discussed as an abstract concept, driving through the physical park revealed the staggering density of the local ecosystem. The hosts describe it as the physical manifestation of Silicon Valley, compressed into a single, highly integrated, government-sponsored industrial park.
The physical proximity fosters an intense level of collaboration and daily communication that cannot be replicated from afar. Tech giants and infrastructure providers sit directly across the street from one another, allowing engineers to literally walk over to neighboring offices to iron out complex manufacturing and design bottlenecks.
- **Corporate Neighbors:** The park features major facilities for EDA giants Cadence and Synopsis, architectural pioneer ARM, and major chip designers like Qualcomm and MediaTek, all clustered tightly together. - **The Talent Pipeline:** Right inside the Science Park sit two major research universities. These institutions continuously cultivate specialized talent, pumping out heavily specialized phds every year who are immediately absorbed straight into the surrounding TSMC ecosystem.
The Semiconductor Tech Bus and the Magic Ecosystem
The flight experiences of both speakers felt like a pilgrimage of fabless chip design companies heading over to Taiwan to engage with the local ecosystem. One speaker compared his plane ride to the semiconductor version of the corporate tech buses running from San Francisco down to Silicon Valley, noting a sea of backpacks branded by tech giants like Google, Amazon, Arm, and Marvell. This observation prompts a discussion on why TSMC is expanding globally, such as building the Arizona Fab, despite it not representing their leading-edge technology or high-volume production. They argue that while customer demands and government pressures motivate international expansion, no country will easily replicate the deeply integrated, physical ecosystem that TSMC enjoys in Taiwan.
Recreating the intricate ecosystem found within Taiwan's science parks would take decades. The speakers reminisce about driving around the area and concluding that this project represents perhaps the single most successful government-funded industry initiative anywhere in the world. Unlike broader efforts like America’s land-grant universities, Taiwan's strategy was a precise "rifle shot" aimed at fostering semiconductor innovation in a specific industrial park. The initiative ultimately yielded one of the ten most valuable companies in the world—and one of only two trillion-dollar enterprises located outside the West Coast of the United States.
- Taiwan operates three major science parks, with the Tainan site in the south currently being even larger than the original. - The speakers observed a massive construction site for TSMC's upcoming 2-nanometer process facility, which will presumably manufacture future iPhone chips and Nvidia GPUs. - The 2-nanometer facility's phase one is open (representing about a quarter of the eventual building), with three subsequent phases underway; small production runs are currently preparing for a major volume ramp in the second half of the year. - The scale of these Fab buildings is described as jaw-dropping, with single phases spanning the size of multiple football fields, drawing comparisons to looking at an Egyptian Sphinx.
Philosophical Differences: TSMC vs. Intel's Fab Strategy
Reflecting on an earlier conversation with TSMC founder Dr. Morris Chang, one speaker recalls feeling slightly guilty for suggesting that the company's original business plan was inherently flawed. The early model relied on absorbing the excess capacity of Integrated Device Manufacturers (IDMs) like Intel to manufacture their least critical, trailing-edge chips. While Dr. Chang firmly believed the fabless revolution was coming, TSMC spent its first five to seven years surviving on non-strategic, cheap manufacturing orders from IDMs just to generate baseline revenue.
This historical origin highlights a fundamental philosophical difference between Intel and TSMC. Intel routinely upgrades and repurposes its existing Fab footprint to support its newest, leading-edge nodes, maximizing asset utility for high-value products. However, this strategy forces Intel to abandon older process generations. TSMC, conversely, keeps its legacy Fabs running. Fabs 2 and 3, built in the late 1980s, are still operating today. Because these older facilities are fully depreciated on an accounting basis, they require minimal maintenance capital expenditure and generate incredibly high-margin revenue.
- Legacy Fabs remain highly valuable for producing replacement parts for tech systems, industrial machinery, and automobiles built decades ago. - Older nodes (ranging from 40 nanometers up to 1 micron) are still widely used for specialty applications like CMOS camera sensors, which do not require advanced sub-3nm lithography. - Dr. Chang admitted in past interviews that early growth was slow because they had to wait for the fabless customer base to emerge, deliberately running a less glamorous business to build capacity, volume, and operational competency.
The Learning Curve and the Ballet of Strategic Finance
The strategic cornerstone of TSMC’s success is "learning curve pricing," a concept formalized at Texas Instruments by Morris Chang alongside the founders of BCG and Bane. The core insight is that semiconductor manufacturing is a fixed-cost, economies-of-scale business where the ultimate winner is whoever commands the highest volume at the end of the game. To achieve this, a company must accelerate its price cuts early in a node's lifecycle—sometimes even operating at a loss—to aggregate market demand, price out competitors, and secure a dominant market share.
Executing this strategy requires extraordinary orchestration, drawing comparisons to the business model of Costco. It demands high-precision forecasting of maturity-stage market demand for a given node. If a manufacturer miscalculates end-market demand by even 5% to 10%, it risks tanking the profitability of an entire node generation, dry up free cash flow, and forfeit its ability to compete in the next round of capital expenditure.
- TSMC constantly balances existential risks when onboarding massive "whale" customers like Apple or Nvidia, where over-reliance on a single customer's product cycle can jeopardize the business. - Advanced chip manufacturing possesses natural monopoly characteristics; building a new Fab currently costs around $20 billion, with future costs projected to escalate to $40 billion, $80 billion, or even $100 billion.
Moore's Law and a $500 Billion Tailwind
TSMC’s financial reality is illustrated by its capital expenditure tracking alongside its net income on a bar graph, showcasing an aggressive reinvestment cycle that outpaces all competitors. Beyond physical infrastructure, TSMC pours vast sums into a separate R&D bucket to pioneer proprietary manufacturing and packaging technologies. A key example is CoWoS (Chip-on-Wafer-on-Substrate), their specialized packaging technology for AI chips, which makes it incredibly difficult for customers to double-source or migrate their manufacturing elsewhere.
Underpinning this entire growth engine is the reality that "Moore's law is undefeated." While the strict technical definition of transistor density doubling may have evolved, the spiritual demand for computing power continues to increase exponentially every 18 to 24 months. The speakers debate the boundaries of physics, noting that while hitting physical limits makes innovation harder, market incentives ensure that software, packaging, and proprietary interconnects are now folded into the modern definition of Moore's Law to keep pace with demand.
- Since TSMC was founded in 1987, the global semiconductor market has expanded from $26 billion to $527 billion. - TSMC successfully rode this massive industry tailwind as the market shifted away from the vertically integrated model pioneered by Intel toward a specialized, trillion-dollar foundry ecosystem. - The financial return on a $20 billion Fab investment is so secure within its payback period (estimated between three to seven years) that massive capital deployments remain highly profitable.
[02:46:40](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=10000s) Reflections on Silicon and the Taiwan Experience
The hosts reflect on the staggering realization that integrated circuits have effectively become the modern fabric of our world, making silicon incredibly valuable. They express immense gratitude for the opportunity to start the year with a trip to Taiwan, viewing it as an amazing experience to spend special time in person with Dr. Morris Chang.
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[02:47:06](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=10026s) Ben's Carve-outs: AAA and Defunctland
Ben introduces his "carve-out" recommendations, starting with a humorous recommendation for AAA membership. He shares an anecdote about a holiday weekend road trip where a faulty gas station pump drained his tires to an unsafe level, leaving his car undrivable with his wife and baby in the back seat. Stranded, Ben signed up for AAA right there in the parking lot; within an hour and a half, a mobile tire inflator arrived to fix the problem for free under the membership. His second recommendation is Defunctland, a YouTube channel centered on the history, intellectual property, and crazy entrepreneurial endeavors behind defunct theme parks and resorts.
- AAA membership costs roughly \$100 to \$150 to join, which includes three free minor roadside service calls a year. - Defunctland covers bizarre and unsafe historical theme park attractions, such as the old Nickelodeon hotels and Action Park in New Jersey during the 1960s through the 1980s.
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[02:49:49](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=10189s) David's Carve-out: Everything Everywhere All at Once
David shares his own carve-out, noting that he finally watched the movie *Everything Everywhere All at Once* during the long plane ride over to Taipei. Having two kids under the age of three and a half has left him with very little time for movies, but he notes that the film completely lived up to the massive hype and deserved every single award it won.
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[02:50:23](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=10223s) Acknowledgments, Mentors, and Semiconductor Experts
The hosts extend their gratitude to their show sponsors—JP Morgan Payments, ServiceNow, and Fundrise—before thanking a long list of semiconductor industry leaders and experts who helped them prepare for the interview with Dr. Chang. They give special shoutouts to industry legends, financial analysts, and content creators who offered guidance on what topics to press. They also highlight the "asianometry" YouTube channel, noting that the creator kindly bought them dinner in Taipei the night before the interview.
- **Art de Geus & Shesh Giriji:** Co-founder/Executive Chair and current CEO of Synopsys, who helped shape the interview questions. - **Rene Haas:** CEO of ARM, who provided valuable insights and notes. - **Sir Peter Bonfield:** Current TSMC board member and former CEO of British Telecom. - **Wally Rhines:** Former CEO of Mentor Graphics and a contemporary of Dr. Chang back at Texas Instruments. - **John Bathgate & Brinton Johns:** Analysts from NZS Capital who previously explained how EUV lasers work to the hosts. - **Tim Culpan:** Former Bloomberg journalist who runs the *Caesium* Substack. - **Arvind Navaratnam:** Analyst at Worldly Partners whose analytical write-up on TSMC provided several key playbook stats for the episode.
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[02:53:15](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=10395s) Back Catalog Recommendations and Sign-off
To wrap up the episode, the hosts direct listeners interested in semiconductors to their extensive back catalog. They highlight their four-part coverage of Nvidia, including an interview with CEO Jensen Huang, alongside their live episode on Qualcomm, which they describe as a "sleeper pick" featuring an incredible technical breakdown of how CDMA works. They sign off by encouraging fans to listen to the TSMC Remastered episode, join the conversation on the Acquired Slack channel, and sign up for their email newsletter for future episode hints and corrections.
- The Qualcomm episode features an extensive breakdown of CDMA and the entrepreneurial journey of Irwin Jacobs. - Listeners can connect with the community at `acquired.fm/slack` and subscribe to updates at `acquired.fm/email`.
## Notable quotes > [06:22](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=382s) Quiet, Morris Chang is calling me! — Jensen Huang
> [29:07](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=1747s) I'm coming to Silicon Valley next week... I will be at your home at 6:00. Let's have just salad and pizza. — Morris Chang
> [38:32](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=2312s) Look, I heard you, but I am still the guy that's responsible for the operation of the company. So you need to let me go ahead with this one. — Morris Chang
> [52:22](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3142s) sometimes you have to let the CEO make his own mistakes and learn from them, — Morris Chang
> [52:22](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3142s) one big company that's functionalized, — Don Brooks
> [52:22](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3142s) Boeing — McKinsey & Company
> [01:00:55](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3655s) my goodness, I have 10,000 people reporting to me now, you want me to take a job that has only 60, 70 people in it? — Mark Liu
> [01:00:55](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3655s) That was my pleasure, — Morris Chang
> [01:00:55](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3655s) I really liked it. — Morris Chang
> [01:05:50](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=3950s) They will come to see you when they are ready, — Morris Chang
> [01:11:31](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=4291s) twenty — Jeff Williams
> [01:30:15](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=5415s) Well, I think you can eliminate your dividend, you know your shareholders will understand that. — Jeff Williams
> [01:36:01](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=5761s) There's nothing to worry about because Intel just does not know how to be a foundry. — Tim Cook
> [01:46:47](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6407s) Ah, if you didn't like the pricing we probably could be going to a McDonald's. — Jeff Williams
> [01:50:33](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=6633s) We invested so much... it was still tens of billions of dollars I think... and now if Apple went to Samsung for the 16, where did that leave us? — Morris Chang
> [02:14:20](https://www.youtube.com/watch?v=FZItbr4ZJnc&t=8060s) I'm not going to build a fab. — Gordon "Gordi" Campbell
## Mentioned TSMC, Morris Chang, Acquired, Ben Gilbert, David Rosenthal, Jensen Huang, Nvidia, Qualcomm, Arm, Synopsis, Hsinchu Science Park, Tyler Cowen, Emergent Ventures, Karina Bao, Apple, iPhone, Mac, Moore's Law, Texas Instruments, Sophie Chang, Rick Tsai, MediaTek, Lori Huang, JP Morgan Payments, C.C. Wei, Mark Liu, Don Brooks, McKinsey & Company, Boeing, Henry Kissinger, Terry Gou, Hon Hai Precision Industry, Foxconn, Jeff Williams, Intel, Goldman Sachs, New York ADR, Taiwan, CC, Cupertino, ServiceNow, ChatGPT, Bill McDermott, Element AI, Tim Cook, Silicon Valley, Samsung, San Jose, IBM, Hsinchu, Irwin Jacobs, UMC, BCG, Mark Shepherd, Bruce Henderson, Dallas, Bill Bain, Boston, Bain & Company, Fundrise, Ben Miller, Data Bricks, Anthropic, Canva, Anduril, Vanta, Service Titan, General Instrument, Gordon "Gordi" Campbell, Atmel, TSMC Museum of Innovation, Seattle, San Francisco, AMD, Cadence, ASML, Marvell, Google, Amazon, CoWoS, AAA, Defunctland, Everything Everywhere All at Once, Art de Geus, Shesh Giriji, Rene Haas, Sir Peter Bonfield, Wally Rhines, Mentor Graphics, John Bathgate, Brinton Johns, NZS Capital, Tim Culpan, Caesium, Arvind Navaratnam, Worldly Partners, Asianometry, CDMA
[Source](https://www.youtube.com/watch?v=FZItbr4ZJnc)