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  1. IELTS Academic reading structure
  2. IELTS General reading structure
  3. IELTS Reading scores
  4. Question Types in IELTS Reading
    Question Types in IELTS Reading Exam
  5. Academic Reading Tests
    IELTS Academic Reading Practice Test 1
    3 Exams
  6. IELTS Academic Reading Practice Test 2
    3 Exams
  7. IELTS Academic Reading Practice Test 3
    3 Exams
  8. General Training Reading Tests
    IELTS General Reading Practice Test 1
    3 Exams
  9. General Overview
    General Overview of IELTS Reading Section
  10. Master Note Taking question on IELTS Reading
  11. Matching Heading question on IELTS Reading section
  12. Matching Features question on IELTS Reading
  13. True / False / Not Given question on IELTS Reading section
  14. Summary Completion question on IELTS Reading
  15. Table completion question on IELTS Reading section
  16. Flow Chart Completion Question in IELTS Reading section
  17. A step by step guide to improve Reading Skills
Exam 2 of 12

Driverless cars reading test with answers and explanation

Driverless cars reading test with answers and explanation

A new IELTS Reading Academic test passage 2 from Cambridge IELTS 15 Reading test 1 under the title Driverless cars reading test with answers and explanation

In this IELTS Reading exam, you will find Driverless cars reading test with answers and explanation

Driverless cars reading test with answers and explanation
Driverless cars reading test with answers and explanation

In the answers tab, you can find the nutmeg a valuable spice reading answers with explanation

READING PASSAGE 2

Questions

Passage

You should spend about 20 minutes on Questions 14-26 which are based on Reading Passage 2 below.

Driverless cars

A

The automotive sector is well used to adapting to automation in manufacturing. The implementation of robotic car manufacture from the 1970s onwards led to significant cost savings and improvements in the reliability and flexibility of vehicle mass production. A new challenge to vehicle production is now on the horizon and, again, it comes from automation. However, this time it is not to do with the manufacturing process, but with the vehicles themselves.

Research projects on vehicle automation are not new. Vehicles with limited self-driving capabilities have been around for more than 50 years, resulting in significant contributions towards driver assistance systems. But since Google announced in 2010 that it had been trialling self-driving cars on the streets of California, progress in this field has quickly gathered pace.

B

There are many reasons why technology is advancing so fast. One frequently cited motive is safety; indeed, research at the UK’s Transport Research Laboratory has demonstrated that more than 90 percent of road collisions involve human error as a contributory factor, and it is the primary cause in the vast majority. Automation may help to reduce the incidence of this.

Another aim is to free the time people spend driving for other purposes. If the vehicle can do some or all of the driving, it may be possible to be productive, to socialise or simply to relax while automation systems have responsibility for safe control of the vehicle. If the vehicle can do the driving, those who are challenged by existing mobility models – such as older or disabled travellers – may be able to enjoy significantly greater travel autonomy.

C

Beyond these direct benefits, we can consider the wider implications for transport and society, and how manufacturing processes might need to respond as a result. At present, the average car spends more than 90 percent of its life parked. Automation means that initiatives for car-sharing become much more viable, particularly in urban areas with significant travel demand. If a significant proportion of the population choose to use shared automated vehicles, mobility demand can be met by far fewer vehicles.

D

The Massachusetts Institute of Technology investigated automated mobility in Singapore, finding that fewer than 30 percent of the vehicles currently used would be required if fully automated car sharing could be implemented. If this is the case, it might mean that we need to manufacture far fewer vehicles to meet demand. However, the number of trips being taken would probably increase, partly because empty vehicles would have to be moved from one customer to the next.

Modelling work by the University of Michigan Transportation Research Institute suggests automated vehicles might reduce vehicle ownership by 43 percent, but that vehicles’ average annual mileage double as a result. As a consequence, each vehicle would be used more intensively, and might need replacing sooner. This faster rate of turnover may mean that vehicle production will not necessarily decrease

E

Automation may prompt other changes in vehicle manufacture. If we move to a model where consumers are tending not to own a single vehicle but to purchase access to a range of vehicle through a mobility provider, drivers will have the freedom to select one that best suits their needs for a particular journey, rather than making a compromise across all their requirements.

Since, for most of the time, most of the seats in most cars are unoccupied, this may boost production of a smaller, more efficient range of vehicles that suit the needs of individuals. Specialised vehicles may then be available for exceptional journeys, such as going on a family camping trip or helping a son or daughter move to university.

F

There are a number of hurdles to overcome in delivering automated vehicles to our roads. These include the technical difficulties in ensuring that the vehicle works reliably in the infinite range of traffic, weather and road situations it might encounter; the regulatory challenges in understanding how liability and enforcement might change when drivers are no longer essential for vehicle operation; and the societal changes that may be required for communities to trust and accept automated vehicles as being a valuable part of the mobility landscape.

G

It’s clear that there are many challenges that need to be addressed but, through robust and targeted research, these can most probably be conquered within the next 10 years. Mobility will change in such potentially significant ways and in association with so many other technological developments, such as telepresence and virtual reality, that it is hard to make concrete predictions about the future. However, one thing is certain: change is coming, and the need to be flexible in response to this will be vital for those involved in manufacturing the vehicles that will deliver future mobility.

Now start to answer “Driverless cars reading test” questions. You will have 20 minutes to answer questions 14 to 26.

You can download answers as a pdf file from here:

Driverless cars IELTS reading test Questions

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Driverless cars reading test answers and explanation

14. C

15. B

16. E

17. G

18. D

19. human error

20. car (-) sharing

21. ownership

22. mileage

23. C

24. D

25. A

26. E

READING PASSAGE 2

You should spend about 20 minutes on Questions 14-26 which are based on Reading Passage 2 below. 

Driverless cars

A

The automotive sector is well used to adapting to automation in manufacturing. The implementation of robotic car manufacture from the 1970s onwards led to significant cost savings and improvements in the reliability and flexibility of vehicle mass production. A new challenge to vehicle production is now on the horizon and, again, it comes from automation. However, this time it is not to do with the manufacturing process, but with the vehicles themselves.

Research projects on vehicle automation are not new. Vehicles with limited self-driving capabilities have been around for more than 50 years, resulting in significant contributions towards driver assistance systems. But since Google announced in 2010 that it had been trialling self-driving cars on the streets of California, progress in this field has quickly gathered pace.

B

There are many reasons why technology is advancing so fast. One frequently cited motive is safety; indeed, research at the UK’s Transport Research Laboratory has demonstrated that more than 90 percent of road collisions involve human error as a contributory factor, and it is the primary cause in the vast majority. Automation may help to reduce the incidence of this (Q19).

Another aim is to free the time people spend driving for other purposes (Q15). If the vehicle can do some or all of the driving, it may be possible to be productive, to socialise or simply to relax while automation systems have responsibility for safe (Q23) control of the vehicle. If the vehicle can do the driving, those who are challenged by existing mobility models – such as older or disabled travellers – may be able to enjoy significantly greater travel autonomy (Q24).

C

Beyond these direct benefits, we can consider the wider implications for transport and society, and how manufacturing processes might need to respond as a result. At present, the average car spends more than 90 percent of its life parked (Q14). Automation means that initiatives for car-sharing become much more viable, particularly in urban areas with significant travel demand. If a significant proportion of the population choose to use shared automated vehicles, mobility demand can be met by far fewer vehicles (Q20).

D

The Massachusetts Institute of Technology investigated automated mobility in Singapore, finding that fewer than 30 percent of the vehicles currently used would be required if fully automated car sharing could be implemented. If this is the case, it might mean that we need to manufacture far fewer vehicles to meet demand. However, the number of trips being taken would probably increase, partly because empty vehicles would have to be moved from one customer to the next.

Modelling work by the University of Michigan Transportation Research Institute suggests automated vehicles might reduce vehicle ownership by 43 percent, but (Q21) that vehicles’ average annual mileage double as a result. As a consequence, each vehicle would be used more intensively, and might need replacing sooner. This faster rate of turnover may mean that vehicle production will not necessarily decrease (Q18) (Q22).

E

Automation may prompt other changes in vehicle manufacture. If we move to a model where consumers are tending not to own a single vehicle but to purchase access to a range of vehicle through a mobility provider, drivers will have the freedom to select one that best suits their needs for a particular journey, rather than making a compromise across all their requirements.

Since, for most of the time, most of the seats in most cars are unoccupied, this may boost production of a smaller, more efficient range of vehicles that suit the needs of individuals. Specialised vehicles may then be available for exceptional journeys, such as going on a family camping trip or helping a son or daughter move to university (Q16).

F

There are a number of hurdles to overcome in delivering automated vehicles to our roads. These include the technical difficulties in ensuring that the vehicle works reliably in the infinite range of traffic, weather and road situations it might (Q25) encounter; the regulatory challenges in understanding how liability and enforcement might change when drivers are no longer essential for vehicle operation; and the societal changes that may be required for communities to trust and accept automated vehicles as being a valuable part of the mobility landscape (Q26).

G

It’s clear that there are many challenges that need to be addressed but, through robust and targeted research, these can most probably be conquered within the next 10 years (Q17). Mobility will change in such potentially significant ways and in association with so many other technological developments, such as telepresence and virtual reality, that it is hard to make concrete predictions about the future. However, one thing is certain: change is coming, and the need to be flexible in response to this will be vital for those involved in manufacturing the vehicles that will deliver future mobility.

 

 

Questions 14-18

14   reference to the amount of time when a car is not in use. C

15   mention of several advantages of driverless vehicles for individual road-users. B

16   reference to the opportunity of choosing the most appropriate vehicle for each trip. E

17   an estimate of how long it will take to overcome a number of problems. G

18   a suggestion that the use of driverless cars may have no effect on the number of vehicles manufactured. D

 

Questions 19-22

The impact of driverless cars

Figures from the Transport Research Laboratory indicate that most motor accidents are partly due to 19human error…, so the introduction of driverless vehicles will result in greater safety. In addition to the direct benefits of automation, it may bring other advantages. For example, schemes for 20car-sharing… will be more workable, especially in towns and cities, resulting in fewer cars on the road.

According to the University of Michigan Transportation Research Institute, there could be a 43 percent drop in 21ownership… of cars. However, this would mean that the yearly 22mileage… of each car would, on average, be twice as high as it currently is. this would lead to a higher turnover of vehicles, and therefore no reduction in automotive manufacturing.

 

Questions 23 and 24

Which TWO benefits of automated vehicles does the writer mention?

C   Travellers could spend journeys doing something other than driving.

D   People who find driving physically difficult could travel independently.

 

Questions 25 and 26

Which TWO challenges to automated vehicle development does the writer mention?

A   making sure the general public has confidence in automated vehicles

E   getting automated vehicles to adapt to various different driving conditions

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