Reading Lab

IELTS Academic Reading Practice Pack 2

A hand-rebuilt Academic Reading set on urban heat adaptation, repair economics, and quantum sensing, designed as the benchmark quality standard for future packs.

Question count
40
Time allowed
60 min
Passages
3
academicreadingfull mockurban planningeconomicssciencetfngynnggold standard candidate
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Passage 1

Cool Roofs and the Politics of Urban Heat

Why reflective roofs moved from engineering detail to public-health policy, and why their effect depends on context rather than slogan.

A.A. For much of the twentieth century, urban heat was treated as an unpleasant background condition rather than a policy variable. Engineers worried about drainage capacity, road surfaces, and electricity load; they did not usually ask which neighbourhoods accumulated the most daytime heat or why some households could not escape it after sunset. That changed once satellite thermal imagery, mobile street sensors, and hospital data began to be read together. Heat ceased to look like a uniform weather event and started to resemble an unevenly distributed urban risk, intensified by dark surfaces, sparse tree cover, overcrowded housing, and limited access to cooling.
B.B. Within that broader shift, cool roofs gained attention because they offered a deceptively simple proposition: alter a surface property and some of the city's heat burden may fall. The central mechanism is high solar reflectance, often discussed through the related concept of albedo. A pale or specially coated roof absorbs less incoming radiation than a dark one and therefore reaches a lower surface temperature under the same conditions. Yet the apparent simplicity is misleading. A roof can become much cooler while the room below changes only modestly if insulation, ventilation, ceiling design, or occupancy patterns interrupt the heat pathway. The physical principle is real, but its consequences are not uniform.
C.C. Early pilot studies encouraged overstatement because they often measured the most responsive part of the system. Researchers reported dramatic reductions in roof-skin temperature, and those findings were then repeated in policy briefs as if they described indoor comfort, household expenditure, and neighbourhood-scale cooling simultaneously. Later work exposed the slippage. Some studies had tracked a single public building rather than a representative housing stock. Others had compared pre- and post-treatment temperatures without controlling for shading, wind exposure, or changes in occupancy. The problem was not fabrication. It was the quiet transfer of a narrow measurement into a much larger claim.
D.D. Once that confusion became harder to defend, the strongest municipal programmes changed their starting point. Instead of promoting reflective coatings everywhere, they began by asking where additional heat protection would matter most. Thermal maps were overlaid with age profiles, income data, building condition surveys, and records of heat-related emergency calls. The result was often politically awkward. Districts with the least private green space and the oldest rental stock were not always those that had received earlier adaptation funding. In that sense, the technical map became a distributive argument: it did not decide the policy, but it narrowed the space in which officials could pretend that exposure was equal.
E.E. Even where targeting improved, several forms of rebound remained. Some owners treated a reflective coating as a one-time purchase and ignored cleaning, despite evidence that accumulated dust and pollution reduce reflectance. Some residents interpreted the intervention as proof that a dwelling was now safe during extreme heat and therefore delayed other protective measures such as night ventilation or attendance at cooling centres. There was also a fiscal rebound. Lower peak cooling demand in one building did not automatically translate into lower citywide energy use if households responded by running air-conditioners for longer. These effects do not invalidate cool roofs, but they do discredit the language of cure.
F.F. The fiscal case therefore depends less on spectacle than on administrative discipline. Where officials can show repeated summer performance, deferred grid upgrades, reduced thermal stress in top-floor dwellings, and fewer emergency interventions during heat spikes, the retrofit begins to look like a managed public asset rather than a cosmetic grant. Yet even here comparison is dangerous. A coating that performs well on a dry inland warehouse may age differently on a salty coastal block, and a social-housing retrofit may produce a different benefit profile from a logistics depot. The most credible programmes publish assumptions, track maintenance, and revise claims downward when local evidence demands it.
G.G. The broader lesson is that cool roofs belong inside a portfolio, not above it. Reflective surfaces can reduce one component of urban heat exposure, but they do not replace shade, ventilation standards, housing repair, or emergency planning. Their political value lies partly in measurability: they can be inspected, costed, and compared over time. Their technical value lies in conditional performance: when matched to the right buildings, maintained properly, and interpreted alongside social vulnerability, they can contribute meaningfully to heat adaptation. What they cannot do is relieve policymakers of the obligation to distinguish between a useful instrument and an all-purpose answer.
Matching Headings

Questions 1-5

Choose the correct heading for paragraphs B-F from the list of headings below.

Write the correct Roman numeral, i-viii, in boxes 1-5.

1. Paragraph B

  • i. When the visible measurement is mistaken for the whole result
  • ii. Why one intervention must be integrated with others
  • iii. The optical principle behind a limited intervention
  • iv. Turning heat maps into an argument about fairness
  • v. Rebounds that follow a superficially successful retrofit
  • vi. The administrative conditions for a credible cost case
  • vii. Why urban heat was once treated as a background issue
  • viii. Evidence that all cities can use the same retrofit strategy

2. Paragraph C

  • i. When the visible measurement is mistaken for the whole result
  • ii. Why one intervention must be integrated with others
  • iii. The optical principle behind a limited intervention
  • iv. Turning heat maps into an argument about fairness
  • v. Rebounds that follow a superficially successful retrofit
  • vi. The administrative conditions for a credible cost case
  • vii. Why urban heat was once treated as a background issue
  • viii. Evidence that all cities can use the same retrofit strategy

3. Paragraph D

  • i. When the visible measurement is mistaken for the whole result
  • ii. Why one intervention must be integrated with others
  • iii. The optical principle behind a limited intervention
  • iv. Turning heat maps into an argument about fairness
  • v. Rebounds that follow a superficially successful retrofit
  • vi. The administrative conditions for a credible cost case
  • vii. Why urban heat was once treated as a background issue
  • viii. Evidence that all cities can use the same retrofit strategy

4. Paragraph E

  • i. When the visible measurement is mistaken for the whole result
  • ii. Why one intervention must be integrated with others
  • iii. The optical principle behind a limited intervention
  • iv. Turning heat maps into an argument about fairness
  • v. Rebounds that follow a superficially successful retrofit
  • vi. The administrative conditions for a credible cost case
  • vii. Why urban heat was once treated as a background issue
  • viii. Evidence that all cities can use the same retrofit strategy

5. Paragraph F

  • i. When the visible measurement is mistaken for the whole result
  • ii. Why one intervention must be integrated with others
  • iii. The optical principle behind a limited intervention
  • iv. Turning heat maps into an argument about fairness
  • v. Rebounds that follow a superficially successful retrofit
  • vi. The administrative conditions for a credible cost case
  • vii. Why urban heat was once treated as a background issue
  • viii. Evidence that all cities can use the same retrofit strategy
True/False/Not Given

Questions 6-9

Do the following statements agree with the information given in Reading Passage 1?

In boxes 6-9, write TRUE if the statement agrees with the information, FALSE if the statement contradicts the information, or NOT GIVEN if there is no information on this.

6. Earlier urban policy usually treated heat as a question of unequal exposure between neighbourhoods.

7. Some early studies on cool roofs focused on roof-surface temperature rather than indoor conditions.

8. Thermal maps were combined with demographic evidence when some cities began prioritising retrofits.

9. The passage states that a reflective coating on coastal buildings lasts longer than one on inland buildings.

Sentence Completion

Questions 10-13

Complete the sentences below.

Choose ONE WORD ONLY from the passage for each answer.

10. The passage uses the term ______ for the share of incoming radiation reflected by a surface.

11. When retrofit priorities were reassessed, thermal maps were combined with household ______ data.

12. If owners neglect cleaning, accumulated dirt can reduce a coating's ______.

13. Repeated local data may allow cities to delay costly upgrades to the electricity ______.

Passage 2

Repair, Price Uncertainty and the Return of Product Life

Why repair is re-entering industrial policy, and why the decisive barriers are often commercial and informational rather than purely technical.

A.A. In high-income consumer economies, the decline of repair did not occur because people suddenly stopped valuing durability. It occurred because the comparison between repairing and replacing became progressively harder to evaluate on equal terms. A new appliance could be priced immediately, financed easily, and delivered quickly. A repair, by contrast, often involved diagnosis, delay, uncertainty about parts, and the possibility that a hidden fault would appear after the first fix. The market signal therefore became distorted. Replacement looked transparent, while repair looked risky, even when the underlying economics were less one-sided than consumers assumed.
B.B. This asymmetry helps explain why economists now describe repair as a market shaped by missing information. The owner of a broken device may know its age, brand, and outward condition, but not whether the fault is minor, whether parts are still available, or whether labour will exceed the value of the item. Researchers studying household appliances found that authorisation rates improved when customers were offered a maximum quoted price before a technician arrived. The guarantee did not eliminate cost. It reduced uncertainty at the precise moment when replacement usually felt safer.
C.C. Information, however, is only one barrier. Design can convert a repairable object into a commercially closed one. Adhesives, sealed casings, proprietary screws, and software locks may be defended as safety measures, but they also control who can open, diagnose, and restore a product. Manufacturers argue that unrestricted access risks counterfeit parts and reputational damage. Critics answer that restricted access shortens product life and concentrates power after purchase. This is the point at which repair stops being a workshop issue and becomes an issue of ownership.
D.D. Public policy has started to respond, though unevenly. Right-to-repair rules in some jurisdictions now require access to manuals, spare parts, firmware tools, or standardised fasteners for specified periods. These rules do not guarantee cheap repair, but they alter the bargaining position of the owner, the independent technician, and the manufacturer. Their significance lies less in any single screw or part catalogue than in the principle that a product should not become commercially sealed the moment it is sold.
E.E. Community repair events reveal a different dimension of the issue. Their direct environmental contribution can be modest in numerical terms, yet their cultural effect can be disproportionate. When volunteers dismantle a toaster or mend a torn jacket in public, they make failure appear legible rather than terminal. Participants leave not simply with a repaired object but with a revised idea of what counts as a serious fault. Such spaces do not replace professional repair networks. They make repair imaginable again.
F.F. Firms, too, are experimenting with repair-based business models, but success depends on logistics rather than sentiment. A company may promise paid mending, trade-in credits, or refurbishment, yet the environmental and financial case collapses if low-value goods are shipped repeatedly over long distances for minor work. The more credible systems combine central expertise with regional intake points, local partners, or modular product design that reduces labour time. Repair, in other words, becomes scalable only when its organisation is designed in advance rather than improvised after failure.
G.G. Environmental accounting adds another complication. Extending product life is often beneficial, but not always. A twenty-year-old refrigerator may consume enough electricity to make replacement sensible, whereas repairing a laptop or coat usually preserves both material and embodied energy. Analysts therefore distinguish between functional obsolescence, where a product no longer performs adequately, and cosmetic obsolescence, where replacement is driven by style, branding, or surface damage. Without that distinction, repair can be praised as a universal virtue when it is actually a conditional strategy.
H.H. The broader lesson is institutional. If repair is framed purely as personal morality, it remains a niche activity carried by enthusiasts and volunteers. If it is treated as infrastructure, with predictable pricing, accessible parts, trustworthy diagnosis, and rules that prevent symbolic compliance, it can alter the economics of ownership. That shift also changes incentives before a product breaks: firms have reason to design for access, technicians have reason to invest in skill, and consumers have reason to delay replacement long enough for repair to be considered seriously. Durable products do not emerge from durable materials alone. They depend on durable systems around them.
Matching Information

Questions 14-17

Which paragraph contains the following information?

Write the correct letter, A-H, in boxes 14-17.

14. a description of a pricing change that altered consumer behaviour before a technician visited

15. an argument that product closure after purchase raises a question about ownership rather than mechanics alone

16. an example of repair becoming practical only when regional organisation supports it

17. a distinction used to prevent repair from being treated as automatically desirable in every case

Matching Features

Questions 18-21

Look at the following statements (Questions 18-21) and the list of groups below.

Match each statement with the correct group, A-D.

You may use any letter more than once.

18. may benefit from a guaranteed upper limit on repair cost

  • A. consumers
  • B. manufacturers
  • C. community repair groups
  • D. public regulators

19. may use restricted access to maintain post-sale control over products

  • A. consumers
  • B. manufacturers
  • C. community repair groups
  • D. public regulators

20. may use public events to change how failure is interpreted

  • A. consumers
  • B. manufacturers
  • C. community repair groups
  • D. public regulators

21. may impose rules intended to rebalance access to manuals and spare parts

  • A. consumers
  • B. manufacturers
  • C. community repair groups
  • D. public regulators
Multiple Choice

Questions 22-24

Choose the correct letter, A, B, C or D.

Write the correct letter in boxes 22-24.

22. What is the writer's main point in the passage?

23. Why does the writer mention an old refrigerator in paragraph G?

24. What is implied about the future of repair?

Summary Completion

Questions 25-27

Complete the summary below.

Choose NO MORE THAN TWO WORDS from the passage for each answer.

25. Repair often looks less attractive than replacement because key information is missing at the moment of ______.

26. Some rules are intended to stop products becoming commercially ______ immediately after sale.

27. Analysts warn that style-driven replacement should be separated from ______ obsolescence.

Passage 3

Quantum Sensors Beyond the Laboratory

How quantum sensors exploit fragile states for exceptional sensitivity, and why deployment depends on systems engineering rather than record-setting alone.

A.A. Quantum sensors are frequently advertised as devices that transform fragility into precision. The slogan is not entirely wrong. Such instruments rely on physical systems whose behaviour changes in response to extremely small disturbances in time, gravity, acceleration, or magnetic field. What makes them attractive is not novelty alone but the possibility of detecting signals that conventional devices treat as background. Yet the phrase also hides a difficulty. A state that is exquisitely sensitive to the target phenomenon may be just as sensitive to vibration, thermal drift, electromagnetic interference, or imperfect control hardware.
B.B. The most mature examples already shape modern measurement. Atomic clocks use quantum transitions to stabilise timekeeping at extraordinary levels. Cold-atom gravimeters can register minute changes in gravitational field strength that may indicate cavities, density shifts, or movement in groundwater. Diamond devices based on nitrogen-vacancy centres can detect weak magnetic fields while operating near room temperature. These platforms differ in engineering detail, but they share the same operational challenge: a quantum state has to be prepared, protected, deliberately perturbed by the signal of interest, and then read out before noise overwhelms the information it contains.
C.C. That requirement explains why laboratory sensitivity and practical usefulness are not interchangeable. A sensor may achieve an impressive result on an isolated table in a controlled room and still prove unreliable in a tunnel survey, on a vehicle, or beside industrial equipment. Researchers therefore distinguish between sensitivity and deployability. The first concerns how small a signal the system can detect under ideal conditions. The second concerns whether the instrument can survive the size, cost, calibration, environmental, and training constraints of ordinary use. The distinction is central, because public claims often celebrate the former while budgets are governed by the latter.
D.D. Early commercial narratives have repeatedly collapsed this distinction. A buried void identified under one set of conditions is taken as evidence that routine field mapping is now straightforward. A magnetometer that registers neural activity in a laboratory is described as if it were already a clinical instrument. In practice, the same device may still require shielding, interpretive expertise, and long preparation time. The writer's point is not that progress is illusory. It is that technological meaning shifts when a record-setting measurement is recast as an operational promise.
E.E. Development usually proceeds in a stricter sequence than promotional materials suggest. The quantum medium must first be stabilised; only then can the system be calibrated against a known reference. After that comes controlled testing, followed by the harder work of miniaturising support hardware and protecting the instrument from ordinary environmental disruption. The final barrier is interpretive rather than physical. Users need a reading that can inform a decision, not simply a signal that impresses another specialist. A sensor that produces beautiful data but indecipherable outputs remains a laboratory achievement rather than a field tool.
F.F. This is why systems engineering matters. The useful question is rarely whether a quantum device has beaten a conventional one under one metric in one paper. It is whether the entire chain - preparation, shielding, readout, calibration, software interpretation, training, and maintenance - holds together outside the laboratory. Adoption is therefore likely to begin where the cost of uncertainty is already high: underground mapping in complex sites, navigation where satellite signals are denied, or monitoring environments in which tiny changes matter. Supplement comes before replacement.
G.G. A simplified sensor layout helps clarify the logic. At the centre sits the quantum medium itself: the atoms, defects, or circuits whose state is being controlled. Around that core are the systems that preserve coherence or reduce disturbance, including shielding and control hardware. A separate readout stage translates the altered state into data that operators can interpret. The diagram is useful precisely because it corrects a common misconception. The sensing element is not the whole instrument; the surrounding architecture often determines whether the element can function at all.
H.H. The field is therefore advancing on two tracks at once. Physicists continue to push sensitivity limits, while engineers and end-users ask what level of complexity a real deployment can tolerate. Those questions do not compete; they constrain one another. A device that is scientifically elegant but operationally fragile may still be worth building if it reveals a path to later simplification. But timelines should be judged by systems engineering, not by a single impressive number on a graph.
Yes/No/Not Given

Questions 28-31

Do the following statements agree with the claims of the writer in Reading Passage 3?

In boxes 28-31, write YES if the statement agrees with the claims of the writer, NO if the statement contradicts the claims of the writer, or NOT GIVEN if it is impossible to say what the writer thinks about this.

28. The writer accepts that quantum sensors may detect signals missed by conventional instruments.

29. The writer believes a strong laboratory result is usually enough to predict field performance.

30. The writer states that diamond-based devices always require vacuum conditions during operation.

31. The writer argues that quantum devices are likely to supplement older tools before replacing them.

Note Completion

Questions 32-33

Complete the notes below.

Choose NO MORE THAN TWO WORDS from the passage for each answer.

32. Before noise overwhelms the system, the quantum state must be deliberately perturbed by the intended ______.

33. Public budgets are governed less by headline sensitivity than by field ______.

Table Completion

Questions 34-35

Complete the table below.

Choose NO MORE THAN TWO WORDS from the passage for each answer.

34. Cold-atom gravimeters may reveal subsurface ______ linked to density variation.

35. Diamond devices can register weak ______ fields while operating near room temperature.

Flow-chart Completion

Questions 36-37

Complete the flow-chart below.

Choose ONE WORD ONLY from the passage for each answer.

36. First, the quantum medium is ______.

37. Next, the system is calibrated against a known ______.

Diagram Labelling

Questions 38-39

Label the diagram below.

Choose NO MORE THAN TWO WORDS from the passage for each answer.

38. Controlled element at the centre of the sensor layout (Label A): ______

39. Conversion stage that turns the altered state into operator-usable data (Label B): ______

Short-answer Questions

Question 40

Answer the question below.

Choose NO MORE THAN TWO WORDS from the passage.

40. According to the writer, what should timelines be judged by?