Bus rapid transit
Bus rapid transit (BRT, BRTS, busway, transitway) is a bus-based public transport system designed to improve capacity and reliability relative to a conventional bus system. Typically, a BRT system includes roadway that is dedicated to buses, and gives priority to buses at intersections where buses may interact with other traffic; alongside design features to reduce delays caused by passengers boarding or leaving buses, or purchasing fares. BRT aims to combine the capacity and speed of a metro with the flexibility, lower cost and simplicity of a bus system.
The first BRT system was the Rede Integrada de Transporte ('Integrated Transportation Network') in Curitiba, Brazil, which entered service in 1974. This inspired many similar systems around Brazil and the world, such as TransMilenio in Bogotá, Colombia, which opened in 2000. As of November 2016[update], a total of 207 cities in six continents have implemented BRT systems, accounting for 5,468 km (3,398 mi) of BRT lanes. As of November 2016[update], about 34.3 million passengers use BRT worldwide everyday, of which about 21.1 million passengers ride daily in Latin America, which has the most cities with BRT systems, with 69, led by Brazil with 34 cities. The Latin American countries with the most daily ridership are Brazil (11.9M), Colombia (3.1M), and Mexico (2.4M). In the other regions, China (4.4M) and Iran (2.1M) also stand out. Currently, TransJakarta considered as the longest BRT route in the world with approximately 210 kilometres (130 mi) length connecting the Indonesian capital city.
- 1 Terminology
- 2 History
- 3 Main features
- 4 Additional features
- 5 Performance
- 6 Cost
- 7 Examples
- 8 Environmental issues
- 9 Criticism
- 10 See also
- 11 References
- 12 Further reading
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"Bus Rapid Transit" takes its name from rail rapid transit, which describes a high-capacity urban public-transit system with its own right of way, multiple-car vehicles at short headways, and longer stop spacing than traditional streetcars and buses. BRT uses buses on a wide variety of rights-of-way, including mixed traffic, dedicated lanes on surface streets, and busways separated from traffic.
The expression "BRT" is mainly used in the Americas and China; in India, it is called "BRTS" (BRT System); in Europe and Indonesia, it is often called a "busway"; in Australia it is often called a "T-Way" (short for Transit Way); while in Ireland and elsewhere,[where?] it may be called a "quality bus".
Critics have charged that the term "bus rapid transit" has sometimes been misapplied to systems that lack most or all the essential features which differentiate it from conventional bus services. The term "bus rapid transit creep" has been used to describe severely degraded levels of bus service which fall far short of the BRT Standard promoted by the Institute for Transportation and Development Policy and other organizations.
The first BRT system in the world was the Rede Integrada de Transporte (RIT, "Integrated Transportation Network"), implemented in Curitiba, Brazil, in 1974.:5 Most of the elements that have become associated with BRT were innovations first suggested by Curitiba Mayor Architect Jaime Lerner. Initially just dedicated bus lanes in the center of major arterial roads, in 1980 the Curitiba system added a feeder bus network and inter-zone connections, and in 1992 introduced off-board fare collection, enclosed stations, and platform-level boarding. Other systems made further innovations, including platooning (three buses entering and leaving bus stops and traffic signals at once) in Porto Alegre, and passing lanes and express service in São Paulo.
In the United States, BRT began in 1977, with Pittsburgh's South Busway, operating on 4.3 miles (6.9 km) of exclusive lanes. Its success led to the Martin Luther King Jr. East Busway in 1983, a fuller BRT deployment including a dedicated busway of 9.1 miles (14.6 km), traffic signal preemption, and peak service headway as low as two minutes. After the opening of the West Busway, 5.1 miles (8 km) in length in 1990, Pittsburgh’s Busway system is today over 18.5 miles long.
New Orleans ran buses on Canal Street in a dedicated right of way beginning in the 1960s. This style of service was maintained until 2004 when streetcar service was restored on this 4-mile (6.4 km) route segment.
In 1995, Quito, Ecuador, opened trolleybus BRT. The TransMilenio in Bogotá, Colombia, opening in 2000, was the first BRT system to combine the best elements of Curitiba's BRT with other BRT advances, and achieved the highest capacity and highest speed BRT system in the world. The success of TransMilenio spurred other cities to develop high quality BRT systems.
Africa's first BRT system was opened in Lagos, Nigeria, in March 2008 but is considered as a light BRT system by many people. Johannesburg’s BRT, Rea Vaya, was the first true BRT in Africa, in August 2009, carrying 42,000 daily passengers. Rea Vaya and MIO (BRT in Cali, Colombia, opened 2009) were the first two systems to combine full BRT with some services that also operated in mixed traffic, then joined the BRT trunk infrastructure.
BRT systems normally include most of the following features:
Bus-only lanes make for faster travel and ensure that buses are not delayed by mixed traffic congestion. Separate rights of way may be elevated, in a cutting, or in a tunnel, possibly using former rail routes. Transit malls or 'bus streets' may also be created in city centers.
Centre of roadway or bus-only corridor keeps buses away from the busy curb-side, where cars and trucks are parking, standing and turning.
Off-board fare collection
Fare prepayment at the station, instead of on board the bus, eliminates the delay caused by passengers paying on board.
Prohibiting turns for traffic across the bus lane significantly reduces delays to the buses. Bus priority will often be provided at signalized intersections to reduce delays by extending the green phase or reducing the red phase in the required direction compared to the normal sequence. Prohibiting turns may be the most important measure for moving buses through intersections.
Station platforms should be level with the bus floor for quick and easy boarding, making it fully accessible for wheelchairs, disabled passengers and baby strollers, with minimal delays.
High-level platforms for high-floored buses makes it difficult to have stops outside dedicated platforms, or to have conventional buses stop at high-level platforms, so these BRT stops are distinct from street-level bus stops. Similar to rail vehicles, there is a risk of a dangerous gap between bus and platform, and is even greater due to the nature of bus operations. Kassel curbs or other methods may be used to ease quick and safe alignment of the BRT vehicle with a platform.
A popular compromise is low-floor buses with a low step at the door, which can allow easy boarding at low-platform stops compatible with other buses. This intermediate design may be used with some low- or medium-capacity BRT systems.
The MIO system in Cali pioneered in 2009 the use of dual buses, with doors on the left side of the bus that are located at the height of high-level platforms, and doors on the right side that are located at curb height. This buses can use the main line with its exclusive lanes and high level platforms, located on the center of the street and thus, boarding and leaving passengers on the left side. These buses can exit the main line and use normal lanes that share with other vehicles and stop at regular stations located on sidewalks, located to the right side of the street. For the system to work, users have the right to receive "credit" on the electronic cards: in this manner, passengers that have no money left on the cards can take the bus on sidewalk stops where there is no possibility to recharge these cards. This means that the balance in the card can be negative, up to two ticket fares, so passengers can take the bus in the street and recharge the card once they reach a main line station. As the card itself costs more than the maximum negative balance, the passenger has no incentive to default on his negative credit. Transmilenio in Bogotá followed suit in 2014 also creating routes that can use main line stations and regular sidewalk stations, but instead of giving credit to passengers to allow boarding the bus on sidewalks, published a map readable in smart phones giving the location of a very dense network of 4,000 recharging points, located in internet cafes and other business, that use a swipe-card terminal for recharging. This system has the additional benefit of diminishing queues on main line stations.
High capacity vehicles
High-capacity vehicles such bi-articulated buses may be used, typically with multiple doors for fast entry and exit. Double-decker buses or guided buses may also be used. Advanced Powertrain control may be used for a smoother ride.
BRT systems typically feature significant investment in enclosed stations which may incorporate attractive sliding glass doors, staffed ticket booths, information booths, and other more standard features listed above. They will often include level boarding, using either low-floor buses or higher boarding platforms level, and multiple doors to speed passenger boardings and enhance accessibility to disabled passengers. Fare validation upon entry to the station in a similar manner to that used on entry to a subway system is also common, particularly at busy stations.
Prominent brand or identity
A unique and distinctive identity can contribute to BRT's attractiveness as an alternative to driving cars, (such as Viva, Max, TransMilenio, Metropolitano, Select) marking stops and stations as well as the buses.
Large cities usually have big bus networks. A map showing all bus lines might be incomprehensible, and cause people to wait for low-frequency buses that may not even be running at the time they are needed. By identifying the main bus lines having high-frequency service, with a special brand and separate maps, it is easier to understand the entire network.
A BRT system can be measured by a number of factors. The BRT Standard was developed by the Institute for Transportation and Development Policy (ITDP) to score BRT corridors, producing a list of rated BRT corridors meeting the minimum definition of BRT. The highest rated systems received a "gold" ranking. The latest edition of the standard was published in 2014. The following table lists the eight systems that were rated Gold based on the 2013 standard.
|City||BRT System (Corridor Name)|
|Guangzhou, China||GBRT (Zhongshan Avenue)|
|Bogotá, Colombia||Transmilenio (Americas, Calle 80, Calle 26, Norte-Quito-Sur, Suba, and El Dorado)|
|Curitiba, Brazil||Curitiba BRT (Linha Verde)|
|Rio de Janeiro, Brazil||BRT (TransOeste, TransCarioca, TransOlimpica)|
|Lima, Peru||El Metropolitano|
|Mexico City, Mexico||Metrobús|
|Dar es Salaam, Tanzania||DART (Kimara-Kivukoni, Kimara-Morocco, Kimara-Kariakoo)|
Other metrics used to evaluate BRT performance include:
- The vehicle headway is the average time interval between vehicles on the same line. Buses can operate at headways of 10 seconds or less, but average headways on TransMilenio at busy intersections are 13 seconds, 14 seconds for the busiest section of the Metrobus (Istanbul).
- Vehicle capacity, which can range from 50 for a conventional bus up to some 200 for an articulated vehicle arranged for standing passengers. Merobus Istanbul operates both Mercedes-Benz Citaro with a capacity of 150 and Mercedes CapaCity with a capacity of 193.
- The effectiveness of the stations to handle passenger demand. High volumes of passengers on vehicles required large bus stations at busy interchange points.
- The effectiveness of the feeder system — can these deliver people to stations at the required speed.
- Local passenger demand. Without a local demand for travel, the capacity will not be used.
Based on this data, the minimum headway and maximum current vehicle capacities, the theoretical maximum throughput measured in passengers per hour per direction (PPHPD) for a single traffic lane is some 90,000 passengers per hour (250 passengers per vehicle, one vehicles every 10 seconds). In real world conditions TransMilenio holds the record, with 35,000 – 40,000 PPHPD with most other busy systems operating in the 15,000 to 25,000 range.
|Location||System||Peak passengers per hour per direction||Passengers per day||Length (km)|
|Bogotá||TransMilenio||35,000 – 40,000||2,154,961||106|
|Guangzhou||Guangzhou Bus Rapid Transit||26,900||1,000,000||22|
|Curitiba, Brazil||Rede Integrada de Transporte||13,900 – 24,100||508,000 (2,260,000 inc. feeder lines)||81|
|Mexico City, Mexico||Mexico City Metrobus||18,500||850,000||115|
|Belo Horizonte, São Paulo||15,800 – 20,300||24|
|Istanbul||Metrobus (Istanbul)||7,300 – 19,500||800,000||52|
|Tehran||Tehran Bus Rapid Transit||2,000,000||150|
|New Jersey||Lincoln Tunnel XBL||15,500||62,000 (4 hour morning peak only)|
Comparison with light rail and metro systems
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After the first BRT system opened in 1974, cities were slow to adopt BRT because they believed that the capacity of BRT was limited to about 12,000 passengers per hour traveling in a given direction during peak demand. While this is a capacity rarely needed in the US (12,000 is more typical as a total daily ridership), in the developing world this capacity constraint was a significant argument in favor of heavy rail metro investments in some venues.
When TransMilenio opened in 2000, it changed the paradigm by giving buses a passing lane at each station stop and introducing express services within the BRT infrastructure. These innovations increased the maximum achieved capacity of a BRT system to 35,000 passengers per hour. Light rail, by comparison, has reported passenger capacities between 3,500pph (mainly street running) to 19,000pph (fully Grade-separated). "From these findings … there is little evidence to support the view that [light rail] can carry more than busways.". There are conditions that favor light over BRT, but they are fairly narrow. To meet these conditions you would need a corridor with only one available lane in each direction, more than 16,000 passengers per direction per hour but less than 20,000, and a long block length, because the train cannot block intersections. These conditions are rare, but in that specific instance, light rail would have a significant operational advantage. However, "... any perceived advantages of [light rail] over BRT are primarily aesthetic and political rather than technical … due to the perceived capacity constraint of BRT there are currently no cases in the US where [light rail] should be favored over BRT."
Comparison with conventional bus services
Conventional scheduled bus services use general traffic lanes, which can be slow due to traffic congestion, and the speed of bus services is further reduced by the time spent at bus stops for passengers to board the vehicle, pay the fare, and to pull back into traffic.
In 2013, the New York City authorities noted that buses on 34th Street, which carried 33,000 bus riders a day on local and express routes, traveled at 4.5 miles per hour (7.2 km/h), only slightly faster than walking pace. Even despite the implementation of Select Bus Service (New York City's version of a bus rapid transit system), dedicated bus lanes, and traffic cameras on the 34th Street corridor, buses on the corridor were still found to travel at an average of 4.5 mph.
In the 1960s, Reuben Smeed predicted that the average speed of traffic in central London would be 9 miles per hour (14 km/h) without other disincentives such as road pricing, based on the theory that this was the minimum speed that people will tolerate. When the London congestion charge was introduced in 2003, the average traffic speed was indeed 14 kilometres per hour (8.7 mph) which was the highest speed since the 1970s. By way of contrast, typical speeds of BRT systems range from 17 to 30 miles per hour (27 to 48 km/h).
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The capital costs of implementing BRT are lower than for light rail. A study by the United States Government Accountability Office from 2000 found that the average capital cost per mile for busways was $13.5 million while light rail average costs were $34.8 million. However, the total investment varies considerably due to factors such as cost of the roadway, amount of grade separation, station structures, traffic signal systems and vehicles.
Operational costs of running a BRT system are generally lower than light rail, though the exact comparison varies. In the study done by the GAO, BRT systems usually had lower costs based on "operating cost per vehicle hour", "operating cost per revenue mile", and "operating cost per passenger trip", mainly because of lower vehicle cost and lower infrastructure cost. Diesel BRT is also much less expensive than a trolleybus system.
In the developing world the operating cost advantages of BRT over light rail or streetcar are greater. For the same level of ridership, higher labor costs in the US relative to in developing countries will tend to encourage US transit operators to use fewer larger vehicles and operate them at lower frequencies in order to minimize the number of drivers needed. This comes at a hidden cost to passengers who experience lower frequency and longer waiting times.
Proponents of light rail argue that the operating costs of BRT are not necessarily lower than light rail. The typically larger light rail vehicles enjoy reduced labor costs per passenger, and the unit capital cost per passenger can be lower than BRT. Furthermore, light rail vehicles have proven useful lifespans of forty years or more, as opposed to buses that often have to be replaced after less than twenty years.
An ambitious light rail system runs partly underground, which gives free right-of-way and much faster traffic compared to passing the traffic signals needed in a surface level system. Underground BRT is rare and expensive. As most buses run on diesel, air quality can become a significant concern in tunnels, but the Downtown Seattle Transit Tunnel is an example of using hybrid buses, which switch to overhead electric propulsion while they are underground, eliminating diesel emissions and reducing fuel usage. An alternative is an elevated busway, which is also costly. A desire for grade separation indicates that a rail alternative may be better.
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TransMilenio was described as a "model BRT system" in the National Bus Rapid Transit Institute's May 2006 report. It serves Bogotá with high-capacity articulated buses, which passengers can board through three doors. Bi-articulated buses are used on the busiest routes. A smart card system is used for off-board fare collection. Despite moving 45,000 ppdph, Transmilenio faces huge problems (especially during peak hours), in terms of not being quite organized, nor having the necessary capacity for handling the high passenger volume, a situation not being limited to peak hours but at most times along the day.
The Rawalpindi-Islamabad Metrobus operates in the Rawalpindi-Islamabad metropolitan area in Pakistan and has length of 24 km and 24 stations. The buses run on segregated lanes in Islamabad, the capital and on an elevated track in Rawalpindi, the fourth most populous city of Pakistan. The daily ridership exceeds 150,000 people.
The Indore (India) BRTS(i-Bus) or the Ahilya Path is a 10 corridor Bus rapid transit system which became operational from 2013 has stations similar to Bogota's TransMilenio and is also projected to connect with the upcoming Indore Metro train or the Monorail(Indore Monorail)
Lahore's Metrobus was the first BRT to be built in Pakistan. Metrobus currently operates a fleet of 86 buses, which run on a single 28.7 km long corridor that includes Ferozepur Road, Model Town, Badshahi Mosque, Mozang Chungi, Gaddafi Stadium and other commercial parts of Lahore. Buses on the current route have an average speed of 26 km/h. According to the Lahore Transport Company, the daily ridership of the Metrobus exceeds 180,000 with the peak hourly ridership being 10,000 ppdph.
An example of high-quality stations include those used on TransMilenio in Bogotá since December 2000, the MIO in Cali since November, 2008, Metrolinea in Bucaramanga since December, 2009, Megabús in Pereira since May, 2009, and most other Latin American BRT systems. This design is also used in Johannesburg's Rea Vaya. The term "station" is more flexibly applied in North America and ranges from enclosed waiting areas (Ottawa and Cleveland) to large open-sided shelters (Los Angeles and San Bernardino).
BRTS in Ahmedabad in Gujarat, India, also known as Janmarg BRTS (People's way), has earned several awards and is regarded as the most efficient and the best in India. It complements the existing bus service of AMTS. It has considerably improved urban public transport. There are almost 100 BRTS stations with over 10 lines adding up to around 70 km. All BRTS stations except two are wheelchair accessible.
The typical bus diesel engine causes noticeable levels of air pollution, noise and vibration. It is noted however that BRT can still provide significant environmental benefits over private cars (and if the lower cost of BRT is to lead to a more extensive, and thus more utilized system, this must be accounted for).
However, the main benefit of BRT systems from the environmental point of view is the substitution of regular buses for more efficient, faster and thus less polluting BRT buses: for example, Bogotá previously used 2.700 conventional buses to provide transportation to 1.6 million passengers daily, while in 2013 it transported 1.9 million passengers using 630 BRT buses, that is, less than a quarter of the old fleet, that circulates at twice the speed, with a huge reduction in contamination. With hybrid vehicles and trolleybuses, BRT designers hope to increase ride quality and decrease pollution. Bogotá started to use hybrid buses in 2012: they use regenerative braking to charge batteries when the bus stops and then use electric motors to propel the bus up to 40 km/h, speed at which the regular diesel engine starts automatically, with considerable savings in fuel consumption and pollutant dispersion.
BRT can use trolleybuses to lower gaseous and noise emissions. The price penalty of installing overhead lines could be offset by the environmental benefits, potential for savings from centrally generated electricity, especially in cities where electricity is less expensive than other power sources. Trolleybus applications can be converted to light rail with the only extra expense being the laying and maintenance of tram tracks in the street.
In tunnels or tunnel systems
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A special issue arises in the use of buses in metro transit structures. Since the areas where the demand for an exclusive bus right-of-way are apt to be in dense downtown areas where an above-ground structure may be unacceptable on historic, logistic, or environmental grounds, use of BRT in tunnels may not be avoidable.
Since buses are usually powered by internal combustion engines, bus metros raise ventilation issues similar to those of motor vehicle tunnels. Powerful fans typically exchange air through ventilation shafts to the surface; these are usually as remote as possible from occupied areas, to minimize the effects of noise and concentrated pollution.
A straightforward way to reduce air quality problems is to use internal combustion engines with lower emissions. The 2008 Euro V European emission standards set a limit on carbon monoxide from heavy-duty diesel engines of 1.5 g/kWh, one third of the 1992 Euro I standard. As a result, less forced ventilation will be required in tunnels to achieve the same air quality.
A different alternative is to use electrical propulsion. Seattle in its Metro Bus Tunnel, and Boston in Phase II of its Silver Line are using this method in their BRTs. In Seattle, dual-mode (electric/diesel electric) buses manufactured by Breda were used until 2004, with the center axle driven by electric motors obtaining power from trolley wires through trolley poles in the subway, and with the rear axle driven by a conventional diesel powertrain on freeways and streets. Boston is using a similar approach, after initially using trolleybuses pending delivery of the dual-mode vehicles in 2005. In 2004, Seattle replaced its "Transit Tunnel" fleet with diesel-electric hybrid buses, which operate similarly to hybrid cars outside the tunnel and in a low-noise, low-emissions "hush mode" (in which the diesel engine operates but does not exceed idle speed) when underground.
The need to provide electric power in underground environments brings the capital and maintenance costs of such routes closer to those of light rail, and raises the question of building or eventually converting to light rail. In Seattle, the downtown transit tunnel was retrofitted for conversion to a shared hybrid-bus and light-rail facility in preparation for Seattle's Central Link Light Rail line, which opened in July 2009.
BRT systems have been widely promoted by non-governmental organizations such as the Shell-funded EMBARQ program, Rockefeller Foundation and Institute for Transportation and Development Policy (ITDP), whose consultant pool includes the former mayor of Bogota (Colombia), Enrique Penalosa (former president of ITPD).
Supported by contributions of bus-producing companies such as Volvo, the ITPD not only established a proposed "standard" for BRT system implementation, but developed intensive lobby activities around the world to convince local governments to select BRT systems over rail-based transportation models (subways, light trains, etc.).
Beside the potential conflict of interests, BRTs are being questioned worldwide because of their contaminating effects in the urban environment. Unlike electric-powered trains commonly used in MRT, light rail and subways, bus rapid transit often uses diesel- or gasoline-fueled engines. To reduce pollution some BRT systems, such as TransJakarta, use liquefied natural gas-fueled engines instead. Furthermore, the lifetime of individual buses is generally shorter than their rail-based counterparts, potentially making the BRT system more expensive to operate in the long term.
However, a principal criticism of BRT systems is that they may not accomplish their promise of an efficient, rapid flow of passengers along their dedicated bus lanes. The remarkable fiasco of Delhi's BRT and the increasing riots and spontaneous user demonstrations in Bogota raise doubts about the ability of BRTs to tackle issues such as the traffic jams induced by dedicated lanes. Overcrowded stations and BRT vehicles may fail to keep pace with increased ridership, and may eventually need to be replaced with high-capacity rail systems.
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Pittsburgh’s leadership on the urban sustainability front is not a recent phenomenon – in fact, it was the first city in the United States to implement elements of bus rapid transit, and it paved the way for more robust U.S. BRT systems. In 1977, only three years after Curitiba, Brazil implemented the world’s first BRT system, Pittsburgh opened the South Busway, 4.3 miles of exclusive bus lanes, running though previously underserved areas of the city, from the western suburbs to the downtown. The city was concerned about worsening traffic congestion, and, lacking the funds to rehabilitate the city's streetcar lines, took inspiration from Curitiba and created the South Busway. Funding for the system came from the Pennsylvania Department of Transportation, the state of Pennsylvania and Allegheny County. The Port Authority of Allegheny County, a county-owned, state-funded agency, operates the system. The success of the South Busway helped the city leverage funding for the expansion of the network, and in 1983, the Martin Luther King, Jr. East Busway opened. The East Busway began as a 6.8-mile network, with an additional 2.3 miles added in 2003, connecting the eastern suburbs with downtown. Fifteen bus routes run along its corridor. Its current weekday ridership is 25,600, with annual ridership close to 7 million. The East Busway built on the success of its predecessor and offered fundamental BRT features including a dedicated busway, service as frequent as every two minutes during peak period, signal prioritization, and direct service operations (more on that soon). However, there is no off-board fare collection. Instead, passengers pay upon entrance for in-bound trips and upon exit for outbound trips, which helps reduce delays in service because of fare collection.
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Exhibit 3-22: "Maximum observed peak hour bus flows, capacities, and passenger flows at peak load points on transitways"
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Bus service along 34th Street is among the slowest in the city. Buses travel at an average of 4.5 miles per hour (7.2 km/h), only slightly faster than walking. Despite these slow speeds, 34th Street is a major east-west bus corridor, carrying over 33,000 bus riders a day on local and express routes.
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- "Historia". Alcaldía de Bogotá – Transmilenio. Retrieved 20 August 2015.
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- "Inicio de operación de buses híbridos". Alcaldía de Bogotá – Transmilenio.
- "Edmonton Trolley Coalition". trolleycoalition.org.
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- "Peñalosa y su trancón de intereses". Al Garete (in Spanish). 24 January 2016.
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|Wikimedia Commons has media related to Bus rapid transit.|
- General information
- The BRT Standard 2014 Edition Institute for Transportation and Development Policy
- Bus Rapid Transit Planning Guide (2007) A very comprehensive 800 guide to creating a successful BRT system by the Institute for Transportation and Development Policy (available in English, Spanish and Portuguese)
- Bus Rapid Transit, Volume 1: Case Studies in Bus Rapid Transit Transportation Research Board
- Bus Rapid Transit, Volume 2: Implementation Guidelines Transportation Research Board
- "Characteristics of Bus Rapid Transit". National Bus Rapid Transit Association. 2009.
- Levinson, Herbert S. (2002). "Bus Rapid Transit: An Overview" (PDF). Journal of Public Transportation. 5 (2).
- Across Latitudes and Cultures Bus Rapid Transit An international Centre of Excellence for BRT development
- Transit Capacity and Quality of Service Manual Transportation Research Board
- BRT Technologies: Assisting Drivers Operating Buses on Road Shoulders. University of Minnesota Center for Transportation Studies, Department of Mechanical Engineering
- Country specific information
- Recapturing Global Leadership in Bus Rapid Transit – A Survey of Select U.S. Cities (available for download in pdf) Institute for Transportation & Development Policy (May 2011)
- Wang Fengwu and James Wang (April 2004). "BRT in China" (PDF). Public Transport International. Retrieved 10 March 2010.
- Vincent, William; Lisa Callaghan Jerram (April 2008). "Bus Rapid Transit and Transit Oriented Development: Case Studies on Transit Oriented Development Around Bus Rapid Transit Systems in North America and Australia" (PDF). Washington, DC: Breakthrough Technologies Institute.
- Bus Rapid Transit Shows Promise U.S. General Accounting Office
- The National BRT Institute (USA)
- Global BRT Data Database of Bus Rapid Transit systems around the world