Transportation and Communication
by Gary Gardner | November 12, 2008
Bicycle production was up 3.2 percent in 2007 to 130 million units, a continuation of the upward trend that has characterized production for most of this decade.1 (See Figure 1.) Global output continued to be largely a Chinese affair, as China produced two of every three bikes made worldwide.2 (See Figure 2.) India, the European Union, Taiwan, Indonesia, and Brazil were the next five largest producers, accounting together for about a quarter of the total.3
Cycling is potentially an important mode of sustainable transport: it is non-polluting, inexpensive, and good for users' health and the quality of urban life. But the amount of cycling in most cities worldwide remains well below its potential.
The share of all trips made by bike varies greatly among countries. Chinese cities still register some of the highest cycling rates in the world, despite growing consumer interest in private automobiles. In the most cycled cities, such as Tianjin, Xi'an, and Shijiazhuang, the bicycle accounts for more than half of all trips.4 In the west, the Netherlands, Denmark, and Germany have the highest rates of cycling, ranging from 10 to 27 percent of all trips.5 This compares with about 1 percent of trips in the United Kingdom, the United States, and Australia.6
In Africa, where bicycles are often unaffordable and where walking is generally the dominant transportation mode, cycling's share of trips registers in the single digits except in a few medium-size cities such as Morogoro, Tanzania; Eldoret, Kenya; and Ougadougou, Burkina Faso, where 10-23 percent of trips are made by bike.7
Electric bikes, which use an electric motor to assist pedaling, are a burgeoning market segment, with most production again taking place in China.8 Sales of electric bikes in Germany nearly tripled in 2007.9 For aging populations and for riders tackling hilly terrain or facing hot temperatures, electric bikes make cycling a viable transport option. Yet battery disposal poses a potentially significant environmental downside to e-bikes.
Increases in global commodity prices in 2007 and 2008 could soon affect bicycle production. Price hikes for steel, butyl, rubber, titanium, and other materials are driving up production costs, and materials shortages have left tens of thousands of partially completed bikes in warehouses.10
At the same time, the spike in gas prices in the first half of 2008 began to stimulate cycling, especially among commuters.11 Dealers began to stock bikes and accessories in anticipation of increased demand.12 In some U.S. cities, including Toledo in Ohio and Charlotte in North Carolina, rising gas prices led officials to resurrect or start police bicycle patrols.13 The Trek Bicycle Corporation reports increased sales of police bikes for the past three years.14
The Netherlands, Denmark, Germany, and other European nations reached high cycling rates through policies that give priority to cycling, walking, and public transportation over private automobiles.15 Bikeways that are separated from traffic, stoplights timed to the speed of bikes, shortcuts allowing cyclists to make right-hand turns before intersections, traffic calming in residential neighborhoods, ample bicycle parking, and coordination with public transport have all made cycling safe, fast, and convenient in strong biking cities.16 (See the Video Resources section for links to videos that illustrate various biking infrastructure features.)
Placing importance on cycling in transportation and land use policy leads to an increase in cycling safety. Bicycle injuries per kilometer traveled are about 30 times higher in the United States than in the Netherlands, and cycling deaths are eight times higher there.17 The sense of safety in the Netherlands has helped increase ridership even among the elderly: 24 percent of all trips made by elderly Dutch people are bike trips.18
Some cities are also increasing accessibility to cycling by establishing public bicycle rental programs.19 Similar to car-sharing programs, these schemes make bikes available to subscribers at strategic locations citywide. Patrons pay on the order of $50 per year to subscribe, as well as a per-hour charge, although in many programs the first half-hour is free.20 Users get access to a bike with an electronic card, use the bike as needed, and return it to the same or another parking rack when finished. In many cities, the program is paid for through on-bike advertising or through concessions to communications companies, who fund the programs in exchange for the right to erect new billboards and sell advertising on them.21
Copenhagen, Berlin, and other European cities have featured public bike programs like this for many years, and Paris took the concept to a new level in 2007-08 by making 20,600 bikes available at more than 1,450 rental stations-four times as many stations as subway stops-some of which are located about 300 yards apart.22 Bikes are now essentially an extension of the public transportation system in Paris. Barcelona and Lyon have also started major programs in the last two years, and new initiatives are planned for Rome, London, Moscow, Geneva, Beijing, Tel Aviv, and Sydney, as well as in a few U.S. cities, including Washington, DC, and San Francisco.23
Video Resources
Several recent videos illustrate some advanced cycling infrastructure and programs from around the world. Click on each item to be connected to the video.
Purchase this trend
| Item# |
Type |
Price |
|
| VST122 |
PDF and Excel |
$10.00 |
Add to Cart |
Includes the following charts and graphs
World Bicycle Production, 1950-2007 Chinese Share of World Bicycle production, 1990-2007
Notes
Please purchase this trend to gain access to the fully referenced endnotes and figures.
by Michael Renner | May 21, 2008
According to Global Insight, global passenger car production in 2007 rose to 52.1 million units from 49.1 million the previous year.1 In addition, production of "light trucks" ran to 18.9 million, up from 17.9 million in 2006, for a combined total of 74.1 million.2 Global Insight projects 2008 total production to reach 75.8 million.3 (See Figure 1.) Including unused production capacity, the world's auto companies are capable of churning out some 84 million vehicles per year. PricewaterhouseCoopers projects that by 2015 worldwide capacity to grow to 97 million units.4
Japan produced the most vehicles in 2007, 11 million, closely followed by the United States with 10.5 million.5 China's production continues to surge, reaching 8.1 million vehicles in 2007. Projected 2008 output of 9.3 million would bring it almost to a par with the United States, whose production is expected to decline to 9.5 million units.6 The next largest producers are Germany (6 million) and South Korea (4 million).7 (See Figure 2.) France, Spain, Brazil, Canada, and Mexico each produced between 2 million and 3 million units.8 At 1.95 million vehicles, India is close to joining the top 10.9
The world's fleet of passenger vehicles is now an estimated 622 million, up from 500 million in 2000 and a mere 53 million in 1950.10 China continues to expand not only its production but also its domestic car ownership. There are now an estimated 43-47 million vehicles on the road there-about as many as the United States had in 1947.11 India's love affair with the automobile is taking off too. And when the country's Tata Motors unveiled the "Nano" in 2008-a no-frills vehicle advertised as the world's cheapest car-it made a splash around the world.12
The transport sector, which relies heavily on cars and trucks for freight movement, is responsible for about a quarter of the world's energy use and has the fastest-rising carbon emissions of any economic sector.13 Road transport currently accounts for 74 percent of the world's total transport-related carbon dioxide (CO2) emissions.14
Improved fuel economy not only limits energy consumption but translates directly into reduced emissions of carbon dioxide. It can also help reduce air pollution from vehicles, although fuel economy and lower emissions of sulfur and nitrogen oxides or particulate matter do not necessarily go hand in hand.15 Lowering air pollution depends on both improvements in engine technology and the production of cleaner fuels (especially those with lower sulfur content). Japan and the United States, followed by the European Union, have the most stringent emission limits.16 China and India are introducing regulations that follow those of the European Union, though with a time lag of several years.17
Hybrid vehicles are generally seen as a key means to achieve higher fuel efficiency, although this technology can be equally applied to boost acceleration and horsepower. In 2007, a total of 541,000 hybrids were produced.18 PricewaterhouseCoopers projects that by 2015 some 2.2 million of these vehicles might be produced.19
Toyota, the company that popularized such cars with the introduction of the Prius in 1997, in 2007 reached the milestone of a cumulative 1 million hybrids produced.20 The company sold half of these vehicles in the United States, where it commands a cumulative 73-percent share of the hybrid market.21 All in all, 2.2 percent of U.S. light-duty vehicle sales were hybrids in the 2007 model year.22 By 2015, hybrids might reach a U.S. market share of anywhere between 5 and 11 percent.23 In Japan, car companies sold close to 89,000 hybrid passenger vehicles in 2006, for 1.6 percent of all cars sold.24
European countries have embraced diesel-powered cars (which account for 50 percent of total sales there), since diesels consume 30 percent less fuel than gasoline engines and emit 25 percent less CO2.25 Worldwide, demand for diesel-powered light vehicles is projected to increase from 16 million in 2007 to 29 million in 2017, resulting in an increase in market share from a current 23.6 percent to 31.5 percent.26 Evolving engine technology and cleaner fuels have rendered diesel passenger cars substantially cleaner than in the past, especially with regard to sulfur dioxide emissions. However, they still emit far more nitrogen oxides and particulate matter than cars that use gasoline do.27
A 2007 report by the International Council on Clean Transportation concludes that Japanese and European factories produce the most-efficient vehicles available today, with new passenger vehicles scoring roughly 40 miles per gallon (mpg) on average.28 The United States is at the bottom of this international ranking, while countries like China, Canada, and Australia are in between and working to increase efficiency in coming years.29
In 1998, European, Japanese, and South Korean companies selling vehicles in Europe entered into a voluntary agreement with the European Commission to lower the amount of carbon emitted by new passenger cars.30 The goal was to reduce the 1995 level of 186 grams of CO2 per kilometer to 140 grams by 2008/2009.31 According to Commission reports, just over 26 percent of European-produced vehicles met the goal in 2004.32 For Japanese- and Korean-made cars sold in the European Union, the numbers were 21 and 29 percent, respectively.33 Because cars have become heavier and more muscular, the industry is not expected to achieve its voluntary aim. In response, the European Commission adopted a proposal forcing manufacturers to produce cars that emit 130 grams per kilometer by 2012 and said it would present further measures in pursuit of a goal of 120 grams.34
The United States has scorned higher fuel efficiency for more than two decades.35 Following the first oil crisis of the early 1970s, sales of the biggest gas-guzzlers-those achieving 15 mpg or less-declined dramatically, from 67 percent of sales in model year 1975 to just 4.5 percent in 1982.36 (See Figure 3.) But the bulk of vehicle sales remains in the interval between 15 and 25 mpg, and the recent popularity of SUVs has even led to reversals of fuel economy gains.37 Just 1.2 percent of all U.S. light vehicles in the 2007 model year could be categorized as truly fuel-efficient-that is, achieving at least 35 miles per gallon, and thus roughly on a par with European carbon limits.38 On average, new U.S. cars in 2007 emitted about 180 grams of carbon per kilometer.39
Leadership in pursuing fuel economy and reducing carbon emissions is essential if the industry is to avoid a head-on collision with climate stability. The motor vehicle industry is a cornerstone of modern economies and an important source of jobs. But a relatively small share of the industry's current output-and thus its employment base-can be considered sustainable. Using the 120 grams of CO2 per kilometer limit as a threshold, about a quarter-million of the automobile manufacturing industry's global workforce of 8.4 million jobs can be considered a shade of green: 150,000 out of more than 2 million jobs in Europe, 62,000 out of 820,000 in Japan, 10,000 out of 250,000 in South Korea, and 13,000 out of 1.1 million in the United States.40
Thailand's government is encouraging efficient vehicle production in an innovative way.41 The government decided in June 2007 to grant tax incentives to auto manufacturers that produce small, fuel-efficient "eco-cars."42 In order to receive tax breaks, a company must, among other things, produce cars that get at least 20 kilometers per liter (47 mpg), generate no more than 120 grams of CO2 per kilometer, and meet Euro-4 air emissions standards.43 The country's 182,000-strong auto industry workforce produced just under 300,000 cars and 896,000 commercial vehicles (mostly small pickup trucks) in 2005.44 Thailand has the potential to become a regional hub of "eco-car" production, with plans to serve markets in other Asian countries, Australia, and Africa.45
Due to a lack of data, calculations on "green" jobs are not possible at the moment for other major vehicle-producing countries, such as China (with 1.6 million employees), Russia (755,000), Brazil (289,000), and India (270,000).46 But China and India are targeting small car production, with China's Chery compact model reportedly achieving a fuel rate of 27 kilometers per liter, equivalent to 63 mpg.47
Purchase this trend
| Item# |
Type |
Price |
|
| VST111 |
PDF and Excel |
$10.00 |
Add to Cart |
Includes the following charts and graphs
World Light Vehicle Production, 1950-2007 Light Vehicle Production, Leading Countries, 1995-2007 U.S. Light Vehicle Sales, by Fuel Economy Segment, 1975-2007
Notes
Please purchase this trend to gain access to the fully referenced endnotes and figures.
|
|