IELTS Reading: ‘Titan of Technology’ Vocabulary & Answer Key

The “Titan of Technology” reading passage opens a window into Intel’s developmental history and the life of Gordon Moore — the mastermind behind the famous Moore’s Law. For IELTS candidates, this passage not only provides a wealth of vocabulary related to technology, management, and economics, but also presents challenges in Multiple Choice, True/False/Not Given, and Summary Completion question types.

To help you save time and optimize your test-taking approach, this article by ECE provides a detailed translation, core vocabulary lists, and in-depth answer analyses closely tied to the original keywords.

Reading Passage

Titan of Technology

[Paragraph 1] Intel, the largest manufacturer of computer chips in the world, owes much of its technological success to the vision of Gordon Moore. Although he is a witty and self-deprecating businessman, he freely admits to being an “accidental entrepreneur,” preferring to stay behind the scenes and talk shop with the engineers rather than face the public or shake hands with the company’s shareholders. After completing his doctorate, he applied for a position at Dow Chemical, where the company psychologist determined that he “would never manage anything” despite his technical competence. In 2018, Intel anticipates a $28 billion revenue year.

[Paragraph 2] Moore was the driving force in research and advancement when he and the extrovert Robert Noyce established Intel (short for Integrated Electronics) to develop integrated circuits 35 years ago; Moore was the quieter, more introverted partner. The culture at Intel was typically Californian: casual and democratic, with an emphasis on polo shirts and chinos. Moore was a typical office worker; he used a cubicle, never had a parking spot, and travelled coach. Nothing here suggests a lack of ambition. Moore and Noyce had a common vision for the company, understanding that in addition to Intel’s technical prowess, its success would require innovative thinking. In 1961, while still a student at Fairchild Semiconductor, Noyce was awarded the first patent for an integrated circuit.

[Paragraph 3] Moore and Noyce became wealthy because of the success of Fairchild, but they were unable to fund any research and development because of this. As a result of their frustration, they left in 1968 to create Intel. It was “one of those unusual opportunities to get your hands on some cash,” Moore explains. With their first $250,000 investment and a “one-page business plan that communicated basically nothing,” they were able to attract $2.5 million in venture money. Funders and founders each hold a 50% stake. After waiting for three years, Intel finally unveiled its 4004 CPU with 2,250 transistors in it. After that, progress accelerated rapidly. Intel had a seven-year research and development advantage over its competitors before they realised what was happening.

[Paragraph 4] Intel’s Pentium-4 chip had 42 million transistors by the year 2000. “Now,” says Moore, “we put a quarter of a billion transistors on a chip, and we’re looking forward to a billion in the near future.” Excellent progress in efficiency has been made. The 4004 operated at 108,000 hertz, or 108 kilohertz, while the Pentium-4 ran at three gigahertz (3 billion hertz). If car speeds had similarly grown during the same time span, it is estimated that you could today drive from New York to San Francisco in just six seconds.

[Paragraph 5] Moore’s foresight in predicting this shift has made him a legend. In 1965, while serving as head of Fairchild’s research and development lab, he wrote an article for Electronics magazine in which he made the following observation: “that over the first four years we had basically quadrupled the complexity of integrated circuits every year.” For the next decade, I extrapolated blindly and predicted that the number of transistors per chip will increase from 60 to 60,000. Because integrated circuits were so expensive and mostly used by the military at the time, this prediction came true much more quickly than I had anticipated. However, I could foresee a huge shift in the economy. One could predict that this would soon be the most cost-effective method of producing electronic devices.

[Paragraph 6] Moore’s Law, which states that the number of transistors in a chip, and hence its performance, will continue to double roughly once every year, was quickly shown so accurately that a Caltech friend of Moore’s, Carver Mead, gave it the name. The moniker has remained. Since then, the exponential growth of the computer industry has been measured in accordance with “Moore’s Law.” When Moore re-evaluated the situation in 1975 and noticed a decline in transistor counts, he predicted that from then on, the performance of chips would only double every two years. However, the prediction turned out to be gloomy. Since then, actual development has been right in the middle of his two forecasts, with performance doubling every 18 months.

[Paragraph 7] As Moore also points out, however, there is a corollary. “If the price of a particular quantity of computing power decreases by fifty percent every one to eight months, then the market bursts with new applications that were previously unprofitable,” says one analyst. In his view, the microprocessor has “nearly unlimited elastic” potential. As the price of these gadgets continues to decline, more and more applications are discovered for them, such as smart light bulbs, flashing sneakers, and singing “Happy Birthday” greeting cards. Where is the limit? After a number of additional generations of circuits, the statement “the fact that materials are formed of atoms becomes a significant problem” is validated. You can’t get anything any smaller, really. In reality, though, the inevitable delay occurs because engineers are always coming up with new and better ways to cram more transistors into a device. When we reached the size of a micron (around the year 1986) and were touching the wavelength of light, I think I shared the general consensus that we had to stop. However, when we drew nearer, the barriers collapsed.

[Paragraph 8] The time for nanotechnology has arrived, as traditional chips have reached their limits. Sci-fi-sounding alternatives are already being developed by scientists, such as molecular computers that are created atom by atom and could theoretically process hundreds of thousands of times more information than today’s processors. To calculate, quantum computers use the quantum properties of electrons, which could allow for much greater speed. Moore’s Law still appears to have a long shelf life by all accounts.

Questions

Questions 1 – 3

Choose the correct option, a, b, c or d.

Write your answers in boxes 1-3 on your answer sheet.

1. Is there anything about Gordon Moore’s character that can be determined from the first two paragraphs?

a. There has been a radical shift in it as his career has progressed.

b. Previously, it was deemed inappropriate for the industry he worked in, therefore it was removed from consideration.

c. It shaped him into someone who is better at manufacturing than selling.

d. It’s not as hard as it seems at first glance.

2. What did we find out about Intel back when it was originally created?

a. In contrast to its competitors, it was completely unique.

b. It had an easygoing vibe but a serious purpose.

c. It was unusual in its management style, and that made it stand out.

d. This method rewarded originality more than any other quality.

3. In the third paragraph, what information concerning Intel’s founding is presented?

a. The availability of resources was a major driving factor.

b. Involved keeping some details under wraps.

c. It was motivated by the founders’ need to get a certain product to market.

d. Its inception can be traced back to the founders’ frustration with their company’s prioritisation strategies.

Questions 4 – 8

Are the following claims accurate with the passage’s information? Write:

TRUE — if the statement agrees with the information

FALSE — if the statement contradicts the information

NOT GIVEN — if there is no information on this

4. Soon, rivals came close to catching up with Intel’s advancements.

5. Moore had underestimated the success of Intel’s Pentium 4 chip.

6. The forecast made by Moore in 1975 was based on insufficient evidence.

7. Flashing trainers illustrate Moore’s theory regarding the relationship between price and utility.

8. Moore has always been convinced that issues regarding the size of components can be resolved.

Questions 9 – 14

Complete the summary using the words provided. Fill in your responses in boxes 9 – 14 on the answer sheet.

Gordon Moore’s capacity to predict future events is well-known. In 1965, he mentioned the expansion of 9. _______________ of integrated circuits and predicted that the number of transistors will continue to rise over the next decade. The 10. _______________ of his forecasting astonished him. Prior to now, the 11. _______________ and primary 12. _______________ of integrated circuits were the key 13. _______________ for their development. Moore, however, anticipated that the 14. _______________ of integrated circuits would improve rapidly. Moore’s Law was coined as a result of his subsequent observations regarding chips.

Design	Use	Opinion	Invention
Cost-effectiveness	Failure	Sophistication	Proposition
Production	Influence	Understanding	Cost
Accuracy	Demand	Theory	Inter-dependence
Familiarity	Reception	Appearance	Refere

Comprehensive Vietnamese Translation of the Reading Passage

Intel, the world’s largest computer chip manufacturer, owes much of its technological success to Gordon Moore’s visionary foresight. Although he is a witty businessman with a self-deprecating and humorous speaking style, he candidly admits to being an “accidental entrepreneur.” He prefers staying behind the scenes to discuss technical matters with engineers rather than making public appearances or shaking hands with shareholders to play politics. After completing his doctorate, he applied for a position at Dow Chemical, where a corporate psychologist concluded that he “would never manage anything” despite his exceptional technical competence. By 2018, Intel was heading toward a projected revenue of $28 billion.

Thirty-five years ago, Moore served as the core driving force behind research and development when he and his extroverted partner Robert Noyce founded Intel (short for Integrated Electronics) to develop integrated circuits. In this dynamic, Moore was the quieter, more introverted partner. Intel’s corporate culture was typically Californian: casual and egalitarian, characterized by polo shirts and chinos. Moore lived like an ordinary office worker; he sat in a standard cubicle, had no dedicated parking spot, and always flew coach. However, this lifestyle by no means reflected a lack of ambition. Moore and Noyce shared a strategic vision, understanding that alongside superior technical prowess, Intel’s success required innovative thinking. In 1961, while still a student at Fairchild Semiconductor, Noyce was awarded the first-ever patent for an integrated circuit.

Although Fairchild’s success brought wealth to both founders, they were unable to freely finance new research and development activities there. It was this frustration over resource allocation that prompted them to leave in 1968 to build Intel. Moore explained, “It was one of those unusual opportunities to get your hands on some cash.” With an initial investment of $250,000 and a “one-page business plan that communicated basically nothing,” they successfully attracted $2.5 million in venture capital. The funders and founders split the ownership 50/50. After three years of waiting, Intel officially unveiled its 4004 CPU containing 2,250 transistors. From that milestone onward, development accelerated at a dizzying pace. Intel secured a seven-year research and development lead over its competitors before they even grasped the competitive landscape.

By the year 2000, Intel’s Pentium 4 chip boasted 42 million transistors. Moore noted, “Today, we can pack a quarter of a billion transistors onto a single tiny chip, and we’re looking forward to a billion in the near future.” The progress in efficiency has been nothing short of astonishing. While the 4004 operated at just 108 kilohertz, the Pentium 4 ran at a staggering 3 gigahertz (equivalent to 3 billion hertz). If automobile speeds had grown at a similar rate over the same period, driving from New York to San Francisco would take a mere six seconds.

Moore’s farsighted prediction of this technological shift turned him into a legend. In 1965, while heading Fairchild’s research lab, he wrote an article for Electronics magazine with this observation: “Over the first four years, we had basically quadrupled the complexity of integrated circuits every year.” Over the next decade, he made a bold extrapolation, predicting that the number of transistors per chip would skyrocket from 60 to 60,000. Because integrated circuits were extremely expensive at the time and used primarily by the military, this prediction came true much faster than he had imagined. Nevertheless, he foresaw a massive economic shift: this would inevitably become the most cost-effective method for producing electronic devices.

Moore’s Law — which states that the number of transistors on a chip, and consequently computer performance, will double roughly every year — proved so accurate so quickly that Carver Mead, a friend of Moore’s at Caltech, officially named it. The moniker has endured ever since as a benchmark for the exponential growth of the computer industry. When Moore re-evaluated the situation in 1975 and noticed a slowdown in transistor growth, he predicted that chip performance would only double every two years. However, that forecast proved overly pessimistic. Actual development landed right between his two scenarios, with performance doubling every 18 months.

Yet, as Moore points out, this law carries an inevitable corollary. One analyst observed, “If the price of a unit of computing power drops by half every 18 months, the market explodes with a flood of new applications that were previously unprofitable.” According to him, microprocessors possess “nearly unlimited elastic” potential. As gadget prices continue to plummet, endless applications are found for them, ranging from smart light bulbs and flashing sneakers to singing “Happy Birthday” greeting cards. Where is the ultimate limit? After multiple generations of circuit improvements, the notion that “the fact that materials are made of atoms becomes a serious problem” has been validated. You cannot shrink things past that physical boundary. Even so, engineers continually devise new ways to cram in more transistors to delay this limit. Moore shared, “When we reached the micron size around 1986 and touched the wavelength of light, I think I shared the general consensus that we had to stop. But as we drew closer, those barriers all collapsed.”

Today, as traditional chips approach their physical limits, the era of nanotechnology has officially begun. Scientists are developing sci-fi-grade alternatives, such as molecular computers built atom by atom, which could theoretically process hundreds of thousands of times more information than current processors. Furthermore, quantum computers harness the quantum properties of electrons to achieve superior processing speeds. By all accounts, Moore’s Law continues to hold long-term visibility and application value.

Key Academic Vocabulary from the Reading Passage

Vocabulary / Phrase	Part of Speech	Contextual Meaning in Passage
Accidental entrepreneur	Noun phrase	Someone who becomes an entrepreneur by chance rather than deliberate intention
Technical competence	Noun phrase	Professional skill and proficiency in technical fields
Democratic culture	Noun phrase	An egalitarian, open work environment
Innovative thinking	Noun phrase	Creative and forward-thinking problem-solving
Venture money	Noun phrase	Venture capital funding
Accelerated rapidly	Verb phrase	Gained speed very quickly
Extrapolated blindly	Verb phrase	Extended trends based on limited data without knowing exact future outcomes
Cost-effective method	Noun phrase	An economical and highly efficient method
Exponential growth	Noun phrase	Rapid, compounding growth over time
General consensus	Noun phrase	A widely accepted agreement among a group of people

Titan of Technology IELTS Reading Answer Key & Explanations

Questions 1 – 3: Multiple Choice

1. Answer: c

Explanation: Paragraph 1 notes that Moore preferred staying behind the scenes to discuss technical matters with engineers rather than facing the public or persuading shareholders (preferring to stay behind the scenes and talk shop with the engineers rather than face the public…). This personality shaped him into an executive focused heavily on manufacturing and product engineering rather than commercial sales or public relations.

2. Answer: b

Explanation: Paragraph 2 describes Intel’s early work culture as casual and democratic, with employees working in standard cubicles (casual and democratic… used a cubicle), matching an easygoing vibe. However, the next sentence immediately clarifies: “Nothing here suggests a lack of ambition,” reflecting a serious purpose.

3. Answer: d

Explanation: The first sentence of paragraph 3 clarifies the reason for Intel’s founding: Although Fairchild’s success made them wealthy, they could not freely allocate financial resources to research new products. As a result of their frustration with this strategy, they decided to leave and start Intel. The word “frustration” aligns directly with option d.

Questions 4 – 8: True / False / Not Given

4. Answer: FALSE

Explanation: The statement claims that rivals soon caught up with Intel’s advancements. In contrast, the end of paragraph 3 states: “Intel had a seven-year research and development advantage over its competitors…” This directly contradicts the claim.

5. Answer: NOT GIVEN

Explanation: Paragraph 4 provides growth figures for the Pentium 4 chip’s transistors, but it never mentions whether Moore had previously underestimated the success of this specific chip.

6. Answer: NOT GIVEN

Explanation: Paragraph 6 discusses how Moore’s 1975 prediction proved slightly pessimistic in hindsight, but the passage provides no commentary or data regarding whether his initial evidence at the time was insufficient.

7. Answer: TRUE

Explanation: Paragraph 7 explains that as computing power costs drop sharply, the market bursts with new practical applications. Flashing sneakers/trainers serve as a tangible, real-world example illustrating this dialectical relationship between falling prices and expanding utility.

8. Answer: FALSE

Explanation: The statement asserts that Moore has always been confident that component size issues would be resolved. However, paragraph 7 states: “When we reached the size of a micron… I think I shared the general consensus that we had to stop.” This proves he once doubted further progress, rather than always being entirely certain.

Questions 9 – 14: Summary Completion

9. Answer: Sophistication

Explanation: Paragraph 5 notes that Moore observed: “…quadrupled the complexity of integrated circuits…”. The word “complexity” is paraphrased as “Sophistication” from the provided word list.

10. Answer: Accuracy

Explanation: Paragraph 5 points out that his prediction came true much faster than expected (came true much more quickly), highlighting his astonishment at its high “Accuracy”.

11. Answer: Cost & 12. Answer: Use

Explanation: Paragraph 5 clarifies that early integrated circuits were extremely expensive (expensive -> Cost) and mostly utilized by the military (mostly used by the military -> Use).

13. Answer: Influence

Explanation: High costs and narrow military applications were the core driving factors that exerted “Influence” on the early developmental path of this technology.

14. Answer: Cost-effectiveness

Explanation: The end of paragraph 5 confirms Moore’s vision: “One could predict that this would soon be the most cost-effective method…”. The keyword “Cost-effectiveness” matches the original text 100%.

In summary, the reading passage Titan of Technology is far from daunting if you master the tactics of dissecting character psychology and recognizing core synonym pairs. We hope this detailed translation and solution guide from ECE Language Center has helped demystify what is often considered a dry technological topic. Keep up the habit of cross-referencing original keywords to build solid reflexes and conquer the Reading section!