ATraffic congestion is one of the most frustrating, economically debilitating blights of contemporary urban life. In major metropolitan centers from Los Angeles and London to São Paulo and Bangkok, commuters spend hundreds of hours each year trapped in gridlock, generating toxic air pollution and wasting billions of dollars in lost economic productivity. For decades, the reflexive response of municipal transportation engineers was straightforward: widen highways, add highway lanes, and construct elevated expressways.
BHowever, transportation economists have demonstrated that building additional road capacity rarely cures traffic jams; in fact, it actively worsens them. This counter-intuitive phenomenon is known in urban planning as 'induced demand'. When highway capacity is expanded, travel times temporarily decline. This brief improvement encourages commuters who previously used buses, rode subways, or traveled off-peak to drive their cars onto the newly expanded freeway. Within two to five years, the widened road fills to capacity once again, leaving congestion as suffocating as before.
CForward-thinking metropolises are abandoning highway expansion in favor of multimodal, integrated public transit systems. Cities like Zurich and Curitiba have demonstrated that giving dedicated right-of-way priority to buses and light-rail trams drastically out-performs private automobile networks. In Curitiba, Brazil, the pioneering Bus Rapid Transit (BRT) network carries over 2 million passengers daily at a fraction of the capital cost of an underground subway, featuring tubular boarding stations that allow level boarding and rapid passenger turnover.
DFurthermore, economic disincentives are proving indispensable. Congestion pricing – pioneered by Singapore in 1975 and subsequently adopted by London, Stockholm, and Milan – levies dynamic tolls on vehicles entering downtown zones during rush hours. In London, congestion charges cut central vehicle traffic by over 20 percent while generating substantial revenues ring-fenced to modernize bus and cycling infrastructure. Transforming car-dependent cities into pedestrian-friendly, transit-oriented communities is no longer a utopian dream; it is an economic and ecological imperative.
EBeyond mass transit infrastructure, leading European capitals are spearheading active mobility revolutions by prioritizing walking and cycling. Cities such as Copenhagen and Amsterdam have invested heavily in segregated cycle superhighways, traffic-calmed residential zones, and secure bicycle hubs at commuter railway stations. In Copenhagen, over 40 percent of all commuter trips are made by bicycle regardless of weather conditions, drastically lowering road wear, slashing municipal healthcare expenditures, and creating vibrant public squares in areas once dominated by parking garages.
FModern digital technologies and intelligent transport systems (ITS) are also transforming how existing networks operate. Centralized traffic management centers utilize artificial intelligence algorithms and real-time sensor data to dynamically adjust signal timings, giving continuous green waves to emergency vehicles and high-occupancy buses. Mobile Mobility-as-a-Service (MaaS) applications consolidate journey planning, contactless payments, and shared micromobility—such as electric scooters and car-sharing clubs—into a single intuitive interface, eliminating the friction of navigating disparate transit operators.
GUltimately, resolving the crisis of urban traffic demands a coordinated policy framework that unites land-use planning with transit provision. Compact, mixed-use developments known as '15-minute cities' ensure that everyday essentials, healthcare, schools, and workplaces are accessible within a short walk or bike ride from residential quarters. By steering urban growth along high-capacity mass transit corridors and strictly regulating private vehicle usage, cities can break the cycle of automobile dependence, ensuring sustainable, equitable, and resilient mobility for the century ahead.
Do the following statements agree with the information given in Reading Passage 2? Write TRUE, FALSE, or NOT GIVEN.
14. Municipal engineers historically responded to traffic jams by expanding and widening roads.
15. The concept of induced demand indicates that widening highways eventually attracts more drivers.
16. The Bus Rapid Transit network in Curitiba was significantly more expensive to construct than a heavy rail subway.
17. Singapore was the first city in the world to introduce congestion pricing in 1975.
18. Congestion tolls in London caused central car traffic to increase dramatically.
19. All private automobile manufacturers are legally required to fund cycling tracks.
Complete the notes below. Choose NO MORE THAN TWO WORDS AND/OR A NUMBER from the passage for each answer.
• Expanding roadways triggers the phenomenon of .
• Metropolises are granting dedicated right-of-way priority to light-rail trams and .
• In Brazil, Curitiba's BRT network transports over passengers every day.
• Stations in Curitiba are shaped like structures to facilitate swift boarding.
• Charges levied on vehicles entering city centers during peak hours are called .
• In central London, vehicle traffic fell by more than after tolls were introduced.
• Toll revenues are re-invested to improve bus services and infrastructure.