What is *Moore's Law* by Arnold Thackray, David Brock, and Rachel Jones about?

*Moore's Law* is an authoritative biography of Gordon Moore, the Silicon Valley pioneer who co-founded Intel and formulated the seminal prediction about exponential growth in computing power. The book traces his journey from a California sheriff’s son to a billionaire chemist, detailing his work at Fairchild Semiconductor, leadership at Intel, and the enduring impact of "Moore’s Law" on modern technology.

Who should read *Moore's Law*?

This book is ideal for technology enthusiasts, business historians, and professionals interested in Silicon Valley’s origins. It offers insights into semiconductor innovation, corporate leadership, and the quiet determination of Gordon Moore, making it valuable for entrepreneurs, engineers, and readers curious about the forces shaping the digital age.

Is *Moore's Law* worth reading?

Yes, for its meticulous research and exclusive access to Moore’s personal archives. The authors blend technical detail with human storytelling, revealing how Moore’s unassuming demeanor masked his revolutionary impact. Critics note its length but praise its depth as a definitive account of a tech visionary.

What is Moore’s Law, and how did Gordon Moore develop it?

Moore’s Law predicts that the number of transistors on microchips doubles every two years, driving exponential growth in computing power. Gordon Moore first articulated this principle in 1965 while analyzing transistor miniaturization trends at Fairchild Semiconductor. His forecast proved remarkably accurate, becoming a guiding force for the tech industry.

How did Gordon Moore contribute to Silicon Valley’s rise?

Moore co-founded Fairchild Semiconductor (1957) and Intel (1968), companies that pioneered mass-produced silicon transistors and microchips. His innovations enabled smaller, faster, and cheaper electronics, laying the groundwork for everything from personal computers to space exploration.

What was Gordon Moore’s leadership style at Intel?

Moore led with a quiet, data-driven approach, relying on collaborators like Andy Grove to execute his vision. Unlike flashy Silicon Valley figures, he prioritized scientific rigor over personal fame, fostering a culture of precision and long-term innovation at Intel.

How does the book address criticisms of Moore’s Law?

The authors acknowledge environmental and economic concerns about the law’s sustainability but emphasize its historical accuracy. They highlight Moore’s own later skepticism about indefinite growth while underscoring his original insight’s transformative role.

What role did Andy Grove play in Gordon Moore’s career?

Andy Grove, Intel’s third employee, acted as Moore’s strategic enforcer, translating technical ideas into actionable business strategies. Their partnership balanced Moore’s introspective innovation with Grove’s operational intensity, driving Intel’s dominance in microprocessors.

Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

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Arnold Thackray

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Überblick über Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

Das Mooresche Gesetz dokumentiert Gordon Moores revolutionäre Vorhersage, die die Computertechnik für immer verändert hat. Die Prognose dieses stillen Genies aus dem Jahr 1965 trieb das exponentielle Wachstum von Halbleitern voran und gestaltete alles neu – vom Smartphone bis zur Medizin. Was passiert, wenn Transistoren atomare Größe erreichen – wird der Herzschlag der Innovation schließlich zum Stillstand kommen?

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Dieselben Ideen aus Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik. Wähle Stimme, Tiefe und Tempo, die zu dir passen. Wechsle jederzeit.

Kapitel 1

The Silicon Visionary Who Changed Our World

Gordon Moore is not just a technological pioneer-he's the architect of our digital age. While Steve Jobs and Bill Gates became household names, Moore quietly engineered the fundamental law that has governed technological progress for over half a century. His prediction that computing power would double approximately every two years while costs decreased has proven remarkably accurate, enabling everything from smartphones to artificial intelligence. Warren Buffett calls Moore's Law "the organizing principle of the technological revolution," while venture capitalist Marc Andreessen notes that "without Moore's Law, none of the internet would have happened." Yet despite his profound impact, Moore remains largely unknown to the public-a soft-spoken chemist who transformed the world through silicon and foresight rather than charisma and showmanship.

Kapitel 2

From Coastal California to Silicon Revolution

Gordon Moore's journey began in the foggy coastal town of Pescadero, California, where he was born in January 1929-the same year the Great Depression began. As a fifth-generation Californian descended from pioneers who arrived by wagon train in 1847, Moore inherited a distinctive blend of self-reliance, pragmatism, and entrepreneurial spirit. His father Walter served as the only law enforcement officer on the Pacific side of San Mateo County, maintaining order through physical presence and local connections rather than confrontation-a style Gordon would later adopt in business. Young Gordon showed little interest in formal education but developed an intense fascination with chemistry at age eleven when his neighbor received a chemistry set for Christmas. The colorful flames, small explosions, and rocket fuel experiments captivated his imagination. "I decided, 'Gee, I want to be a chemist,'" he recalled. He converted his family's garage shed into a laboratory, pouring concrete for a solid floor and collecting beakers, flasks, and chemicals. Despite occasionally burning his hand or creating dangerous compounds, his parents remained remarkably permissive, merely cautioning him to "be careful." This early passion established Gordon's lifelong pattern of methodical experimentation and hands-on problem-solving. Chemistry offered both excitement and control-a way to create astonishing transformations while channeling inner tensions. Unlike many childhood interests, Moore's chemistry obsession persisted through high school, where he excelled academically while participating in varsity football and gymnastics. When the Moore family moved to Redwood City in 1939, Gordon's world expanded beyond the isolated coastal community. At Sequoia High School, he continued his chemical experiments while developing as an athlete. After graduating, he enrolled at San Jose State College in 1946, where his life would change in ways he couldn't imagine-not just professionally, but personally.

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Kapitel 3

The Chemistry of Love and Learning

In September 1946, Gordon Moore made an uncharacteristically spontaneous decision to attend a pre-semester student government conference at Asilomar-a choice that would alter his life trajectory. There he met Betty Irene Whitaker, a vivacious journalism major with dark eyebrows, dimples, and a direct gaze. Gordon was immediately attracted to her spirit and beauty, while she appreciated his composure and quiet confidence. Their connection began playfully on the bus ride home, with Gordon winning all of Betty's pennies in a matching game. "Everything he touched turned to gold," Betty would later observe. Their relationship developed slowly as they balanced busy academic schedules. Despite their different temperaments-Gordon quiet and analytical, Betty outgoing and intuitive-they formed a complementary partnership. By early 1948, their relationship solidified when Gordon gave Betty a garnet birthstone ring for her birthday. As their romance blossomed, Gordon's academic ambitions expanded beyond San Jose State. After applying to UC Berkeley with transcripts and recommendation letters, he was accepted to start his junior year in 1948. At Berkeley, Gordon thrived among scientific luminaries, taking classes with multiple Nobel laureates including Glenn Seaborg and William Giauque. When he enrolled in Giauque's graduate-level thermodynamics course as an undergraduate, he initially scored zero on the midterm but rallied to achieve the second-highest grade on the final, outperforming nearly all the graduate students. This experience confirmed his growing confidence that with focused effort, he could excel at the highest levels of chemistry. After graduating from Berkeley, Gordon was accepted to Caltech for graduate studies. This created a pivotal decision point-whether to ask Betty to join him, effectively a marriage proposal in that era. His hesitation reflected his avoidant personality and the clear gender divisions of his upbringing. Though the decision came late in July 1950, when he finally chose Betty and marriage, it would remain "firm and unwavering for the rest of his life." Their wedding was hastily arranged in just four weeks, with Betty handling all preparations while Gordon worked until the day before the ceremony. The next day, the newlyweds departed for Pasadena, where Gordon needed to start at Caltech immediately.

Kapitel 4

The Making of a Scientific Mind

At Caltech, Gordon quickly distinguished himself by being the only transfer student who didn't require remedial coursework. Unlike students who arrived with plans to work with famous professors like Linus Pauling, Gordon interviewed various faculty before finding his match in Richard McLean Badger, a mid-fifties experimentalist specializing in infrared spectrophotometry. Though not as renowned as Pauling, Badger's hands-on approach to crafting experimental equipment aligned perfectly with Gordon's interests. Moore thrived under Badger's guidance, quickly immersing himself in laboratory work studying nitrogen compounds to determine their molecular structures. Working with three different spectrophotometers, Gordon modified the equipment to increase sensitivity, adding a lead-sulfide detector that gave him his first exposure to semiconductors. He published his first scientific paper in December 1951 at age twenty-two, and by early 1953, had published multiple papers, including his first solo article on nitrogen dioxide. Remarkably, Gordon completed his PhD in less than three years-an achievement reflecting both his ambition and his status as a married man eager to begin earning. His thesis incorporated his published papers and detailed the electronic systems he had built, concluding with ten "Propositions," including a whimsical suggestion that high schools should offer laboratory courses in explosives to address the shortage of chemists. As graduation approached, Gordon naturally considered an academic career but found the job market tight. With few options, Badger suggested industry, telling Gordon, "Take a look at industry-I think you'll like it." When other opportunities failed, Badger connected him with the Applied Physics Laboratory (APL) in Silver Spring, Maryland, operated by Johns Hopkins University for the US Navy. The Moores moved east in September 1953, with Gordon joining APL's "flame spectroscopy" group studying molecules in rocket flames-research funded by the Navy's guided missile program. Though he enjoyed the technical challenges, Moore began questioning his career path by 1955, calculating the cost-per-word of his published articles and wondering if the government was getting value from his work.

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Kapitel 5

The Call That Changed Everything

In February 1956, a phone call arrived that would alter the course of technological history. "This is Shockley," announced the confident voice on the line. William Shockley-co-inventor of the transistor and soon-to-be Nobel Prize winner-was recruiting brilliant minds for his new semiconductor venture in Mountain View, California. He needed a chemist to help perfect silicon-based transistors, and Moore's name had caught his attention. For Gordon, languishing on the East Coast and longing to return to California, this unexpected call represented a perfect opportunity. Though he had no experience with silicon transistors, the chance to work with a scientific luminary while creating useful technology near his family roots was irresistible. Without hesitation, Moore agreed to fly west to discuss the possibility-a decision that would profoundly alter his future and eventually transform human society. After impressing Shockley during technical discussions and passing personality assessments, Gordon received an offer of $750 monthly in February 1956. For Betty and Gordon, accepting was "a no-brainer" despite the fact their working relationship with Shockley would last barely eighteen months. At Shockley Semiconductor, Gordon found primitive conditions "comparable to alchemists' laboratories" with basic benches and furnaces. Drawing on his chemistry background, he immediately made himself useful by fashioning glass gas-handling systems and building better furnaces with uniform temperature profiles essential for transistor production. Through persistent experimentation despite frequent failures, Moore gradually developed viable manufacturing processes for silicon transistors. However, Shockley's management style proved increasingly problematic. After winning the Nobel Prize in Physics in November 1956, he became more distracted and erratic, abruptly firing a colleague and shifting focus from diffused silicon transistors to more complex four-layer diodes. When Moore and colleague Robert Noyce urged Shockley to maintain focus on transistors, he dismissed their concerns.

Kapitel 6

Birth of Silicon Valley

The breaking point came in May 1957 when Arnold Beckman, Shockley's financial backer, visited Mountain View. After a contentious meeting, Moore and seven colleagues (soon dubbed "the Traitorous Eight") decided to leave and form their own company. With investment banker Arthur Rock's help, they secured backing from Sherman Fairchild to create Fairchild Semiconductor Corporation. At Fairchild, the eight cofounders were eager to prove their decision right. What united them was their shared commitment to manufacturing the diffused silicon transistor. Unlike working under Shockley's micromanagement, Fairchild Semiconductor was a true partnership where they worked for themselves. The timing proved fortuitous-the week of Fairchild's launch coincided with the Soviet Union's successful Sputnik launch, creating "a boom within a boom" highly advantageous to their venture. Moore's role as the group's chemist was critical-he built diffusion furnaces from scratch since no commercial versions existed for electronics manufacturing. His success with the furnaces led his colleagues to assign him the additional task of developing diffusion procedures for transistors. The team's first major breakthrough came when they secured an order for 100 mesa transistors at $150 each from IBM, with delivery expected by August 1st, 1958-just six months after founding the company. As Fairchild grew rapidly, Moore's responsibilities expanded. By 1959, he was overseeing research and development while colleague Jean Hoerni developed the revolutionary planar process-a method of fabricating transistors that would transform the industry. That same year, Robert Noyce sketched the concept of the integrated circuit or "microchip"-multiple transistors on a single silicon wafer with interconnections laid on top of an insulating oxide layer.

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Kapitel 7

The Vision That Changed the World

By 1962, witnessing dramatic yield improvements through new manufacturing techniques, Moore articulated his insights in a seminal hundred-page chapter for the book "Microelectronics." This work contained his breakthrough intellectual achievement-a rigorous analysis demonstrating that microchips would dramatically lower electronics costs while enabling previously unimaginable capabilities. Moore's "economics of integration" showed mathematically that planar microchips were already the cheapest option for computer logic, and that as manufacturing techniques improved, the maximum feasible complexity would steadily increase while costs would drop. He predicted this miracle of increasing capability and decreasing cost would eventually transform all electronics, including consumer products. In April 1965, Moore refined this insight in his landmark article "Cramming More Components onto Integrated Circuits" for Electronics magazine. Here, he made his boldest prediction yet: the number of components on integrated circuits would double annually for at least a decade, making electronic devices simultaneously better and cheaper. He foresaw "home computers, automatic controls for automobiles, and personal portable communications equipment"-predictions that seemed fantastical at the time but have since become reality. This observation-that transistor density would double approximately every 18-24 months while costs decreased-became known as "Moore's Law." It wasn't a natural law but a social one-created through coordinated global industry efforts and billions in investment. The result: computing costs have fallen more than a millionfold, while electronics components have become over a billionfold cheaper. Despite this visionary publication, Moore grew increasingly frustrated with Fairchild's internal divisions and inability to capitalize on his insights. In 1968, when colleague Robert Noyce proposed starting a new company focused on semiconductor memory chips, Moore initially declined, saying "I've got the best job in the industry." But as Fairchild's situation deteriorated, Moore reconsidered, calling Noyce: "Okay, I'll go too."

Kapitel 8

Intel and the Microprocessor Revolution

Moore and Noyce launched Intel with a clear strategy based on lessons from Fairchild. Rather than competing in established markets, they would create new ones with advanced memory microchips. Moore's vision centered on having "the best silicon printing press" to "insulate" them from competition, while focusing on standard products that could be sold in bulk. Memory chips offered the perfect opportunity-unlike custom logic chips, they could be standardized products with broad appeal. With Arthur Rock's financial backing, they incorporated "Integrated Electronics," shortened to Intel, in July 1968. While Noyce became Intel's charismatic figurehead, Moore focused on internal operations, watching expenditures and programs. As Noyce became more invested in external work, Moore increasingly relied on Andy Grove, who had joined from Fairchild, to handle technical and manufacturing issues. Their relationship was deeply significant-Grove saw Moore as a father figure, while Moore found Grove "easy to talk to" and came to see him as his natural successor. Intel's first major success came with the 1103 DRAM (dynamic random access memory) chip, which became the industry's best-selling microchip by 1972. But an unexpected opportunity arose when Japanese calculator manufacturer Busicom requested custom chips. Intel engineer Ted Hoff proposed a revolutionary solution-creating a general-purpose programmable chip rather than custom logic chips. With Moore's support, this became the 4004 microprocessor, the first "computer on a chip." Though initially skeptical about the microprocessor's market potential, Moore gradually recognized its transformative power. While memory chips remained Intel's primary business through the 1970s, the company continued developing increasingly powerful microprocessors-the 8008, 8080, 8086, and 8088. The turning point came in 1981 when IBM selected Intel's 8088 for its first personal computer. Moore insisted on pricing the chip at just $10 despite $20 manufacturing costs, echoing an earlier strategy from Fairchild. This decision helped establish the "Wintel" partnership that would dominate computing for decades.

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Kapitel 9

Facing the Japanese Challenge

By 1980, Moore became deeply concerned about Japanese competition flooding the US memory chip market. Japanese manufacturers had caught up with Intel, partly by following the predictable trajectory of Moore's Law. They focused intensely on quality manufacturing while American companies rushed to innovation. Japanese products achieved defect rates of one in a million, while Intel had been arguing with customers about whether 1% defective parts was acceptable. The Japanese had changed the ground rules of competition, forcing Intel to completely rethink its approach to quality manufacturing. Despite IBM's investment and support, Intel's bet on the 256K DRAM failed spectacularly, capturing just 0.1% of the world market by 1985. Moore faced a critical decision about whether to invest $400 million in two new fabrication plants for the next-generation 1-megabit DRAM. After much deliberation with Grove, Moore asked himself a pivotal question: "If you were coming in through the door from the outside to run the company, would you stay in DRAMs?" His answer was clear: "No." This "revolving door" moment led to Intel's most significant strategic shift-abandoning the DRAM market that had been Intel's first major success and redirecting resources to microprocessors. Moore refocused his team on putting the powerful 32-bit 80386 processor on advanced manufacturing technology, making microprocessors rather than memory the driver of Intel's future. With this strategic pivot, Moore approved another bold move-breaking from industry practice by making Intel the sole manufacturer of the 386 processor. The gamble was enormous: if customers rejected a sole-sourced chip, Intel might fail, but if they accepted it, Intel would control pricing and profits for the heart of the PC revolution.

Kapitel 10

Legacy of a Quiet Revolutionary

Gordon Moore's strategic gamble paid off spectacularly. After Intel's first-ever public loss in 1986, his decisions to exit DRAM, invest in advanced manufacturing, and sole-source the 386 microprocessor delivered record profits in 1987. At Intel's 1987 executive dinner, Moore surprised everyone by naming Andy Grove CEO while remaining chairman himself-preserving his strategic role while shedding management responsibilities he never relished. Under Moore's guidance as chairman, Grove invested heavily in advancing manufacturing technology, doubling revenue to $5 billion and tripling profits to $800 million between 1987-1991. The "Wintel" partnership with Microsoft dominated the PC industry, with Intel controlling more than 80% of PC microprocessors by the mid-1990s. In January 1997, at sixty-eight, Gordon Moore decided it was time to step back from Intel. After guiding the company's strategies through its reinvention, he felt ready to transition to an advisory role. By 2001, Moore reached the mandatory retirement age of seventy-two and stepped down from the board-a difficult transition for him. "Amazingly little" life existed outside Intel, he quipped. As Gordon's role at Intel diminished, he faced new challenges-particularly how to handle his immense wealth, which at its peak made him one of the twenty richest people worldwide. Following models established by David Packard and William Hewlett, Gordon decided to direct this vast fortune toward philanthropic investments for the common good. In 2000, Gordon and Betty established the Gordon and Betty Moore Foundation with an initial endowment of approximately $5 billion. The foundation focused on environmental conservation, scientific research, and higher education. Major initiatives included preserving salmon habitats in the North Pacific, protecting Amazon rainforests, launching open-access biomedical journals, and a transformative $600 million pledge to Caltech-the largest ever to higher education at that time. Gordon approached philanthropy with the same analytical mindset that drove his business success. He wanted his foundation to tackle "big problems" with "big impact, long term" and insisted on measurable results: "If you can't measure it, how do you know if you're doing any good?"

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Kapitel 11

The End of an Exponential Era?

By 2015, experts across semiconductor and financial communities began voicing concerns about the sustainability of Moore's Law. As transistors approach the size of silicon atoms themselves, both physical limits and economic barriers loom. Former Intel fellow Robert Colwell bluntly stated, "I pick about 2020 as the earliest we could call Moore's Law dead." Moore himself has long acknowledged this inevitability: "All good exponentials come to an end." Yet the impact of his observation has been incalculable. Moore's Law created certainty about perpetual progress-plummeting costs with rising power and performance. Through the efforts of countless researchers and hundreds of billions in investment, the semiconductor industry has maintained this dynamic for over half a century. The digital revolution has proven Gordon correct that electronics would suffuse every aspect of society, introducing transformations that have fundamentally altered human experience. With adults spending roughly half their waking hours immersed in electronic interactions, Moore's Law has become a singularly important enabler of modern life. Gordon Moore's legacy in silicon electronics stands clear and unchallenged. Silicon Valley-nestled near Gordon's native Pescadero-has become the undisputed heartland of the electronic revolution, its very name enshrining the role of chemistry, silicon transistors, and Moore's exponential vision. "Moore's Law" has become both a vogue phrase for revolutionary technological growth and the exact descriptor of silicon electronics' forward pathway for six decades. Yet ironically, while Moore's Law receives routine obeisance, Gordon himself remains largely unknown outside a small circle of admirers. The quiet revolutionary of Silicon Valley has provided the world with a paradox: the past certainty of exponential advance and the present certainty of its ending. As his own life enters its final chapter, so does the story of Moore's Law and of the electronic revolution as we have known it-a revolution that has transformed humanity's relationship with information, communication, and reality itself.

Kapitel 12

The Man Behind the Law

Despite his extraordinary impact on modern society, Gordon Moore remains remarkably unaffected by fame and fortune. Colleagues describe him as "a remarkably non-greedy person" who has never talked about having money. Throughout his career, he maintained his frugal habits, even after becoming one of the world's wealthiest individuals. Moore's personality reflects his Pescadero upbringing-quiet, practical, and emotionally reserved. Betty once observed that "Gordon does not like human emotions," a limitation tested when she suffered a miscarriage in 1953. While Betty was heartbroken, Gordon acknowledged remembering the event but lacked the emotional language to support her through grief. This pragmatic, analytical approach to life became a recognized Moore family trait. His sons noted that while he rarely showed emotion, he did experience sadness when his brother Fran was dying of cancer and when his father passed away. Even in anger, Gordon remained controlled, tightening his lip and slightly changing his tone rather than expressing outbursts. Moore's leadership style reflected his personality-setting provocative questions for his talented team to solve rather than giving direct orders. At Intel, he established a partnership with Andy Grove that balanced Moore's quiet intelligence and direction by indirection with Grove's nervous energy and appetite for confrontation. As Craig Barrett observed, "Andy Grove was very deferential to Gordon... looking at Gordon to see in what direction he was leaning" before making decisions. Throughout his life, Moore has maintained his love for outdoor pursuits, particularly fishing-an activity that connects him to his childhood in Pescadero. With Betty, he has enjoyed fishing expeditions from San Francisco Bay to Baja California and Alaska, valuing both the challenge and the quiet solitude. In his later years, Moore has divided time between their Mountain Meadow estate in Woodside, California, and their home on Hawaii's Kona coast, where the warm climate eases Betty's arthritis. Despite his vast wealth and accomplishments, Moore remains the same practical, unassuming person who once built his own laboratory as a child-a man who changed the world not through flamboyance or self-promotion, but through careful observation, analytical thinking, and a remarkable ability to see the future trajectory of technology. Gordon Moore's legacy demonstrates that Silicon Valley's greatest revolutionary depended not on flashes of inspiration or unbridled ego, but on rootedness, consistency, and methodical analysis as the foundation for enduring progress. In a world increasingly defined by the exponential growth he identified, Moore himself represents something timeless and grounded-a good man whose focus, study, work, constancy, and commitment provide a model that transcends the technology he helped create.

★★★★★

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Personen in Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

Gordon MooreCo-founder of Intel and architect of Moore's Law
Betty Irene WhitakerGordon Moore's wife and lifelong partner
Walter MooreGordon's father and a local law enforcement officer
Richard McLean BadgerCaltech professor and Gordon's doctoral mentor

Über den Autor

Arnold Thackray, renommierter Wissenschaftshistoriker und Co-Autor von Moore’s Law: The Life of Gordon Moore, Silicon Valley’s Quiet Revolutionary, bringt jahrzehntelange Expertise in der Untersuchung der Schnittstellen zwischen Wissenschaft, Technologie und Gesellschaft ein. Als in Großbritannien geborener Akademiker und Gründervater von Institutionen rief Thackray die Chemical Heritage Foundation (heute das Science History Institute) ins Leben und lehrte als Joseph Priestley Professor Emeritus an der University of Pennsylvania, wo er Pionierarbeit bei der Untersuchung der kulturellen Auswirkungen der modernen Wissenschaft leistete.

Sein wissenschaftliches Werk umfasst Arbeiten wie Atoms and Powers und Chemistry in America, in denen er präzise historische Analysen mit Erzählungen über Innovation verbindet.

Moore’s Law, gemeinsam mit David Brock und Rachel Jones verfasst, spiegelt Thackrays Meisterschaft wider, technologische Revolutionen durch biografische und gesellschaftliche Blickwinkel zu kontextualisieren. Das Buch erforscht die Geschichte der Halbleiter und den stillen Einfluss von Gordon Moore – Themen, die durch Thackrays führende Rolle bei der Bewahrung des wissenschaftlichen Erbes zusätzlich an Bedeutung gewinnen.

Ausgezeichnet mit dem Dexter Award für Beiträge zur Geschichte der Chemie, wurde sein Werk ins Chinesische, Italienische und andere Sprachen übersetzt, was seine globale Reichweite unterstreicht. Thackrays Vermächtnis als Institutsgründer und Gelehrter stellt sicher, dass dieser Bericht sowohl bei Technologie-Enthusiasten als auch bei Historikern Anklang findet.

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@Jaded_Falcon

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"It is great for me to learn something from the book without reading it."

@OojasSalunke

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"I never knew where to start with nonfiction—BeFreed’s book lists turned into podcasts gave me a clear path."

@Chloe, Solo founder, LA

117

"Perfect balance between learning and entertainment. Finished ‘Thinking, Fast and Slow’ on my commute this week."

@Raaaaaachelw

"Crazy how much I learned while walking the dog. BeFreed = small habits → big gains."

@Matt, YC alum

108

"Reading used to feel like a chore. Now it’s just part of my lifestyle."

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"Feels effortless compared to reading. I’ve finished 6 books this month already."

@djmikemoore

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"BeFreed turned my commute into learning time. 20-min podcasts are perfect for finishing books I never had time for."

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483

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@Cashflowbubu

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Kapitel 12

Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

ÜberblickÜberblick über Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

Ein Buch. Viele Arten, es zu hören.

The Silicon Visionary Who Changed Our World

From Coastal California to Silicon Revolution

Sieh jedes Wort, während du es hörst

The Chemistry of Love and Learning

The Making of a Scientific Mind

Hol mehr aus Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik heraus

The Call That Changed Everything

Birth of Silicon Valley

Sieh jedes Wort, während du es hörst

The Vision That Changed the World

Intel and the Microprocessor Revolution

Hol mehr aus Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik heraus

Facing the Japanese Challenge

Legacy of a Quiet Revolutionary

Sieh jedes Wort, während du es hörst

The End of an Exponential Era?

The Man Behind the Law

Du bist am Ende von Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik angekommen

Kernthemen in Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

Zitate aus Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

Personen in Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik

Über den Autor

Zusammenfassung von Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik herunterladen

Nutzern gefiel auch

FAQ zu diesem Buch

What is Moore's Law by Arnold Thackray, David Brock, and Rachel Jones about?

Who should read Moore's Law?

Is Moore's Law worth reading?

What is Moore’s Law, and how did Gordon Moore develop it?

Teil eines Lernplans

Advance My Career

Mehr entdecken

1,000,000+ curious minds.

1,000,000+ curious minds.

Ein Buch. Viele Arten, es zu hören.

The Silicon Visionary Who Changed Our World

From Coastal California to Silicon Revolution

Sieh jedes Wort, während du es hörst

The Chemistry of Love and Learning

The Making of a Scientific Mind

Hol mehr aus Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik heraus

The Call That Changed Everything

Birth of Silicon Valley

Sieh jedes Wort, während du es hörst

The Vision That Changed the World

Intel and the Microprocessor Revolution

Hol mehr aus Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik heraus

Facing the Japanese Challenge

Legacy of a Quiet Revolutionary

Sieh jedes Wort, während du es hörst

The End of an Exponential Era?

The Man Behind the Law

Du bist am Ende von Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik angekommen

Nutzern gefiel auch

Teil eines Lernplans

Advance My Career

Mehr entdecken

Überblick über Das Ende des Siliziums? Moore’s Law und die Zukunft der Computertechnik