Reading Lab

IELTS Academic Reading Practice Pack 37

A premium Academic Reading set on urban tree-canopy equity, peatland restoration, and warehouse robotics.

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Time allowed

60 min

Passages

academicreadingfull mockurban ecologyrestorationautomationtfngynngqa candidate

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Passage 1

Why Tree Canopy Gains Do Not Automatically Become Heat Justice

How tree canopy reduces urban heat but often distributes cooling unevenly across cities, making tree policy a question of equity as well as ecology.

A.A. Urban trees are now central to climate adaptation policy because they cool streets, shade buildings, and improve thermal comfort in neighbourhoods where summer heat has become more dangerous. Yet tree policy can be misunderstood when canopy expansion is treated as a simple numerical target. A city may plant more trees overall and still reproduce unequal heat exposure if new canopy is concentrated in already well-served areas, if mortality is high where stress is greatest, or if the forms of planting chosen do not match the places where vulnerable residents spend time. The politics of urban cooling therefore begins not with whether trees matter, but with where, for whom, and under what maintenance conditions their benefits become real.

B.B. This is partly because canopy is not the same as cooling. A city can report rising tree numbers while delivering little change to the hottest pedestrian environments if the new plantings are small, poorly distributed, or too recently established to provide meaningful shade. Conversely, a modest intervention in the right street corridor may reduce experienced heat more than a larger but less strategically located effort. The metric that matters most for public well-being is therefore not sheer quantity, but the interaction between canopy form, placement, and human exposure.

C.C. Distributional equity sharpens the issue further. In many cities, low-income districts and historically marginalised communities have lower tree cover, smaller trees, and fewer resources for maintenance. Because many cooling benefits are highly local, these patterns matter directly for health. Tree inequality is not only a landscape aesthetic issue; it is a pattern of uneven protection. When cities rely on aggregate greening figures, they risk masking neighbourhoods where thermal burden remains severe even as citywide averages improve.

D.D. Species choice also complicates the public narrative. Fast-growing species may create visible canopy quickly, but they can carry higher water demand, weaker storm resilience, or poorer long-term survival in stressed urban soils. More durable species may be slower to transform the landscape but better suited to sustained adaptation. The result is a classic planning tension between rapid visibility and long-term performance. Political timelines often reward the former, while climatic benefit depends heavily on the latter.

E.E. Maintenance is where many tree strategies quietly succeed or fail. Watering, pruning, soil management, pest monitoring, and replacement of failed plantings are less dramatic than ribbon-cutting events, yet they determine whether canopy survives long enough to provide substantial cooling. This is especially true in the hotter, more paved districts where new plantings may struggle most. A planting programme without a maintenance strategy can therefore exaggerate adaptation progress by counting intention more easily than endurance.

F.F. For this reason, some urban researchers argue that heat planning should combine canopy policy with cool roofs, shade structures, access to indoor refuge, and street design rather than treating trees as a universal answer. Trees remain valuable, but they work best inside portfolios that recognise different timescales. Some measures can protect residents almost immediately; canopy often requires years before its full effect is felt. Confusing those timescales can turn a good long-term measure into a poor short-term promise.

G.G. Urban tree policy matters because it reveals how adaptation can look generous while remaining selective. A city that expands canopy without addressing maintenance, species survival, and neighbourhood distribution may still cool itself on average while leaving its hottest residents under-protected. The more serious standard is whether tree investment changes the geography of exposure rather than simply the appearance of commitment. That is why canopy planning belongs as much to public-health governance as to urban beautification.

H.H. In practice, this means cities must decide whether canopy is being managed as a climate service, a land-value amenity, or a symbolic sustainability asset. Those categories overlap, but they are not identical. Where they pull apart, the distribution of cooling reveals which objective has really been prioritised. That is the hidden argument inside many tree plans, and it is why counting trunks is never enough.

I.I. The strongest canopy strategies therefore look beyond planting totals toward the geography of avoided exposure. They ask which streets become safer, which residents gain usable shade first, and whether maintenance budgets are sufficient to keep those benefits alive once political attention shifts elsewhere.

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. Why maintenance reveals whether adaptation claims are serious
ii. Why canopy totals can obscure the difference between trees and cooling
iii. A warning that political visibility and climatic value may diverge
iv. The argument for replacing trees with hard engineering only
v. Why neighbourhood averages can hide local heat injustice
vi. A defence of rapid-growth planting whatever the long-term cost
vii. Why tree policy works best inside a broader adaptation portfolio
viii. The claim that species choice has little effect on outcomes

2. Paragraph C

i. Why maintenance reveals whether adaptation claims are serious
ii. Why canopy totals can obscure the difference between trees and cooling
iii. A warning that political visibility and climatic value may diverge
iv. The argument for replacing trees with hard engineering only
v. Why neighbourhood averages can hide local heat injustice
vi. A defence of rapid-growth planting whatever the long-term cost
vii. Why tree policy works best inside a broader adaptation portfolio
viii. The claim that species choice has little effect on outcomes

3. Paragraph D

i. Why maintenance reveals whether adaptation claims are serious
ii. Why canopy totals can obscure the difference between trees and cooling
iii. A warning that political visibility and climatic value may diverge
iv. The argument for replacing trees with hard engineering only
v. Why neighbourhood averages can hide local heat injustice
vi. A defence of rapid-growth planting whatever the long-term cost
vii. Why tree policy works best inside a broader adaptation portfolio
viii. The claim that species choice has little effect on outcomes

4. Paragraph E

i. Why maintenance reveals whether adaptation claims are serious
ii. Why canopy totals can obscure the difference between trees and cooling
iii. A warning that political visibility and climatic value may diverge
iv. The argument for replacing trees with hard engineering only
v. Why neighbourhood averages can hide local heat injustice
vi. A defence of rapid-growth planting whatever the long-term cost
vii. Why tree policy works best inside a broader adaptation portfolio
viii. The claim that species choice has little effect on outcomes

5. Paragraph F

i. Why maintenance reveals whether adaptation claims are serious
ii. Why canopy totals can obscure the difference between trees and cooling
iii. A warning that political visibility and climatic value may diverge
iv. The argument for replacing trees with hard engineering only
v. Why neighbourhood averages can hide local heat injustice
vi. A defence of rapid-growth planting whatever the long-term cost
vii. Why tree policy works best inside a broader adaptation portfolio
viii. The claim that species choice has little effect on outcomes

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. The passage says tree planting automatically reduces heat exposure wherever it occurs.

7. According to the passage, some neighbourhoods may remain highly exposed even when citywide greening figures improve.

8. The writer states that fast-growing species are always unsuitable for urban planting.

9. The passage provides an exact canopy percentage that all cities should target for heat justice.

Sentence Completion

Questions 10-13

Complete the sentences below.

Choose ONE WORD ONLY from the passage for each answer.

10. The passage distinguishes rising tree numbers from actual thermal ______.

11. Tree inequality is described as a pattern of uneven ______.

12. A planting programme without good upkeep may count intention more easily than ______.

13. The final paragraph says counting ______ is never enough.

Passage 2

Peatland Restoration and the Problem of Carbon Promises

Why restoring peatlands matters for carbon and water systems, but why the political and hydrological conditions of restoration are harder than simple carbon narratives suggest.

A.A. Peatlands have become important to climate policy because they store large amounts of carbon over long periods while also shaping water regimes, biodiversity, and fire behaviour. When intact, they function as slow, saturated systems that protect carbon from rapid oxidation. When drained, burned, or heavily modified, they can become major sources of emissions and ecological instability. Restoration therefore appears attractive: raise water tables, reduce degradation, and carbon loss should decline. Yet the reality is less immediate than policy slogans often suggest.

B.B. Hydrology is central because peatlands are not simply damaged soils waiting for replanting. Their carbon dynamics depend on water conditions maintained across time and space. Blocking drainage channels, rewetted surfaces, and altered vegetation can help, but recovery trajectories are shaped by site history, surrounding land use, nutrient status, and whether water can actually be retained without creating conflict for adjacent users. A peatland cannot be restored by instruction alone; it has to be restored through a working water regime.

C.C. This is one reason why carbon accounting around restoration can become politically awkward. Some projects can reduce emissions relatively quickly, while others may take much longer before benefits stabilise or become measurable at meaningful scale. Policymakers like simple timelines, but peat systems do not always provide them. The result is a tension between the desire for crisp climate promises and the slow, variable ecology of damaged wetlands.

D.D. Land-use conflict sharpens that tension. Peatlands are often embedded in landscapes already committed to forestry, grazing, extraction, or other economic uses. Rewetting may therefore change access, alter surrounding drainage expectations, or disrupt established livelihood patterns. Restoration advocates sometimes present these conflicts as temporary misunderstandings, but in many places they are structurally real. Successful peatland policy has to negotiate trade-offs rather than assuming that ecological necessity automatically produces social consent.

E.E. Fire risk adds another layer. Drained peat can burn deeply and persistently, turning long-stored carbon into rapid atmospheric release while damaging air quality and ecosystem function. Restoration can reduce that risk by changing moisture conditions, but only if the hydrological intervention is durable and the surrounding management context supports it. A restored site surrounded by wider drainage pressures may remain exposed. This is why isolated projects can produce weaker results than landscape-scale strategies.

F.F. Monitoring is therefore indispensable but often underfunded. Water levels, vegetation change, greenhouse-gas fluxes, and fire susceptibility need to be tracked over time if restoration claims are to remain credible. Without that evidence, peatland restoration can become rhetorically powerful while staying empirically thin. The challenge is that long-term monitoring rarely offers the political visibility of announcing new hectares restored.

G.G. Peatland restoration matters, then, not because it offers effortless carbon recovery but because it reveals what serious ecological repair actually requires: patience, hydrological realism, negotiated land-use change, and long-duration evidence. The strongest projects do not promise instant reversal. They build the conditions under which degraded systems can move away from continuing loss. That is a slower story than many climate narratives prefer, but it is also the more credible one.

H.H. In this sense, peatlands challenge a familiar policy habit: counting restoration area as if it were equivalent to restored function. Hectares matter, but only when linked to water, time, and management conditions capable of sustaining recovery. Otherwise, restoration remains aspirational acreage rather than an ecological transition. The distinction is difficult, which is precisely why it matters.

I.I. The broader lesson is that peatland restoration should be judged less by the speed of its announcement than by the durability of the wet conditions and governance arrangements it creates. Where those foundations hold, carbon and ecological gains can accumulate credibly. Where they do not, restored hectares remain politically useful but environmentally uncertain.

J.J. That is why peatland policy increasingly tests whether climate institutions can fund patient repair rather than only visible interventions. The ecological system asks for continuity, not just commitment in principle. Restoration succeeds politically only when that continuity survives changing priorities and shorter funding cycles.

K.K. Where restoration is treated this way, peatlands become a test of whether climate policy can support slow ecological repair rather than only fast symbolic wins. That may be one of their most important lessons for wider restoration debates overall.

Matching Information

Questions 14-17

Which paragraph contains the following information?

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

You may use any letter more than once.

14. a statement that simple restoration targets can confuse area with ecological function

15. an explanation that peat recovery depends on creating a workable water regime rather than issuing a plan alone

16. a warning that carbon timelines in peatland policy are often less neat than decision-makers prefer

17. an argument that monitoring has high scientific value but lower political visibility

Matching Features

Questions 18-21

Look at the following features (Questions 18-21) and the list of elements below.

Match each feature with the correct element, A-D.

Write the correct letter, A-D, in boxes 18-21.

NB You may use any letter more than once.

18. can weaken restoration outcomes when treated only at isolated site scale

A. hydrology
B. land-use conflict
C. fire risk
D. monitoring

19. shapes whether rewetted systems can actually remain wet over time

A. hydrology
B. land-use conflict
C. fire risk
D. monitoring

20. makes restoration politically difficult because existing livelihoods may be disrupted

A. hydrology
B. land-use conflict
C. fire risk
D. monitoring

21. is essential for credibility but often less publicly celebrated than hectare announcements

A. hydrology
B. land-use conflict
C. fire risk
D. monitoring

Multiple Choice

Questions 22-24

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

22. What is the writer’s main point in paragraph D?

23. According to the passage, why can peatland restoration look simpler in politics than in ecology?

24. What best captures the writer’s overall position?

Summary Completion

Questions 25-27

Complete the summary below.

Choose ONE WORD ONLY from the passage for each answer.

25. Intact peat protects stored carbon because wet conditions slow its rapid ______.

26. Restoration can fail if surrounding ______ pressures continue to drain the wider landscape.

27. The final paragraph warns against confusing restored area with restored ______.

Passage 3

Warehouse Robotics and the Reorganisation of Human Oversight

How automation in warehouses changes work by moving people from direct handling into supervision, exception management, and intensified coordination.

A.A. Public discussion of warehouse robotics often swings between two simplified images: fully automated facilities in which humans disappear, and unchanged workplaces where machines merely assist. Most real systems lie somewhere between those extremes. Automation can reduce some forms of physical handling, but it also creates new tasks in monitoring, troubleshooting, sequencing, and exception management. This means the effect of robotics is less a simple subtraction of labour than a reorganisation of where labour sits and what kinds of attentiveness it demands.

B.B. Productivity arguments are central to adoption. Robots can operate predictably, reduce certain forms of repetition, and help compress fulfilment times in systems that depend on rapid sorting and movement. For firms, this can look like a straightforward efficiency gain. Yet the social organisation of that gain matters. A process made faster by robotics often becomes more tightly timed for the human workers who remain, since delays at handover points, maintenance bottlenecks, or irregular items now stand out more sharply in an otherwise optimised flow.

C.C. Human work therefore does not necessarily become easier when it becomes less manual. In some settings, workers shift from heavy lifting toward surveillance of interfaces, intervention when automated routines fail, and constant response to exceptions the system cannot easily classify. These jobs may be less physically punishing in one dimension while becoming more cognitively fragmented in another. The burden moves from muscle to attention, and that transition is not always recognised in managerial claims about improved conditions.

D.D. Reliability is another issue. Automated systems can be highly efficient under expected conditions yet surprisingly brittle when confronted with damaged packaging, unusual object shapes, software faults, or demand spikes. Warehouses then depend on people who can restore flow quickly enough that the surrounding system does not stall. Human flexibility becomes the quiet backup layer beneath machine consistency. This is one reason why labour often persists in automated environments in forms that are harder to count but still operationally decisive.

E.E. Oversight and measurement intensify as well. Robotics systems generate granular data about movement rates, idle intervals, and process variation. Managers can use that information to improve flow, but they can also use it to increase the precision with which human performance is observed and compared. For workers, the result may be a workplace that feels more legible to management even as the reasons for interruption or delay become more complex. Automation can therefore extend managerial visibility at the same time as it increases dependence on human judgement.

F.F. Supporters argue that these systems open opportunities for safer and more skilled work, especially where dangerous repetitive tasks are reduced. Critics counter that upskilling is uneven and that many employees encounter not greater autonomy but tighter coordination pressure. Both claims can be true in different parts of the same facility. The key question is not whether robots arrive, but how tasks, discretion, and gains are distributed once they do.

G.G. Warehouse robotics thus offers a useful correction to the assumption that automation simply replaces labour unit for unit. More often, it redistributes labour across new bottlenecks, new forms of oversight, and new expectations of speed. The human role becomes less visible in some respects precisely because it is concentrated in moments of interruption, recovery, and judgement rather than constant motion. Understanding automation requires paying attention to those moments rather than only to the image of a machine-filled floor.

H.H. This is why the labour politics of automation increasingly concerns governance inside firms rather than only employment totals outside them. Questions about pace, training, monitoring, repair responsibility, and decision authority shape whether automated logistics becomes a safer coordination system or a more tightly pressurised one. The technical system matters, but so does the managerial settlement built around it.

I.I. That is also why simple counts of jobs gained or lost reveal too little about automation’s social effect. The crucial issue is how remaining work is redesigned, how much discretion survives, and whether the new system treats human judgement as a valued capacity or merely as a backup pressed into service when optimisation fails.

J.J. In that sense, the most revealing measure of warehouse automation may be neither robot count nor headline productivity, but how responsibility is distributed when the optimised system meets real-world irregularity.

Yes/No/Not Given

Questions 28-31

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

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

28. The writer believes warehouse automation usually reorganises human work rather than simply erasing it completely.

29. The writer thinks less manual work always means less demanding work overall.

30. The passage states that automated systems always cope smoothly with irregular packaging and demand spikes.

31. The writer argues that all workers experience upskilling in the same way after automation.

Note Completion

Questions 32-33

Complete the notes below.

Choose ONE WORD ONLY from the passage for each answer.

32. A faster robotic flow can make human ______ points more visible.

33. Automation may shift burden from muscle to ______.

Table Completion

Questions 34-35

Complete the table below.

Choose ONE WORD ONLY from the passage for each answer.

34. People remain crucial when the system faces software faults or unusual object ______.

35. Management may use process data to increase performance ______.

Flow-chart Completion

Questions 36-37

Complete the flow chart below.

Choose ONE WORD ONLY from the passage for each answer.

36. Robotics speeds routine flow, but irregular items create new ______.

37. Human staff then restore ______ when automated routines fail.

Diagram Labelling

Questions 38-39

Label the diagram below.

Choose ONE WORD ONLY from the passage for each answer.

38. type of human work emphasised when automated systems encounter exceptions

39. managerial practice intensified by granular process data

Short-answer Questions

Question 40

Answer the question below.

Choose NO MORE THAN THREE WORDS from the passage for your answer.

40. What does the writer say the labour politics of automation increasingly concerns inside firms?