| |
|
Which Countries will survive best?
Which countries are likely to survive the decline
of oil best? Some think that developed countries will do better since
they have the technology, money and organisation to cope with a societal
change. On the other hand, they rely more upon oil and power, and are
more distant from the pre-Industrial Age lifestyle that we will all have
to return to. Working out which countries will cope best is a complicated
subject but anyone can get access to statistics which will give us an
idea of how well placed countries are for the future. Some matters, such
as government planning and warfare, are almost impossible to predict but
we can examine some of the data on various countries to see which will
tilt the balance one way or another. On this page I take a sample selection
of countries and examine their positions.
Data from the CIA World Factbook (2006) unless otherwise indicated.
Agriculture
Arable Land
Probably the most important single statistic is population. The greater
the population, the greater the demand for food, energy, jobs, etc. But
simply taking the population and dividing by the land area of the country
– a simple density – gives a misleading value. Botswana, for
example, has a land area of about 580,000 sq km, similar to France, but
whereas in France a third of that land is arable, only 0.65% of Botswana
is. Deserts and mountains are of little use for growing food.
What we need to compare then is the density of arable land since this
gives us an idea of what resources can be turned over to food production
and maybe biofuels. (Much land which is not classed at the moment as arable
could be converted but let's keep things simple.)
With the decline of oil and gas for agrochemicals, and the rising costs
of imported food, it will be necessary to turn much more land over to
agricultural use. While ‘urban farms’ can be created from
gardens and parks, it will be easier to use land that is already designated
as agricultural so we need to look at the amount of land that already
exists as such.
This first table show selected countries and the important density per
arable land.
(B.D. = Basic Density: population divided by land area; A.D. = Arable
Density: population divided by arable land area. Areas are given in square
kilometers.)
| |
Population |
Land Area |
B.D. |
Arable Land |
A.D. |
| Australia |
20,264,082 |
7,617,930 |
3 |
6.15% |
468,503 sq km |
43 |
| Canada |
33,098,932 |
9,093,507 |
4 |
4.57% |
415,573 sq km |
80 |
| Russia |
142,893,540 |
16,995,800 |
8 |
7.17% |
1,218,599 |
117 |
| USA |
298,444,215 |
9,161,923 |
33 |
18.01% |
1,650,062 sq km |
181 |
| New Zealand |
4,076,140 |
268,021 |
15 |
5.54% |
14,848 sq km |
275 |
| Brazil |
188,078,227 |
8,456,510 |
22 |
6.93% |
586,036 sq km |
321 |
| World |
6,525,170,264 |
148,940,000 |
44 |
13.31% |
19,823,91 sq km |
329 |
| France |
60,876,136 |
545,630 |
112 |
33.46% |
182,568 sq km |
333 |
| Czech Republic |
10,235,455 |
77,276 |
132 |
38.82% |
29,999 sq km |
341 |
| Ireland |
4,062,235 |
68,890 |
59 |
16.82% |
11,587 sq km |
351 |
| Norway |
4,610,820 |
307,442 |
15 |
2.70% |
8,301 sq km |
555 |
| Swaziland |
1,136,334 |
17,203 |
66 |
10.25% |
1,763 sq km |
644 |
| India |
1,095,351,995 |
2,973,190 |
368 |
48.83% |
1,451,809 sq km |
754 |
| Saudi Arabia |
27,019,731 |
1,960,582 |
14 |
1.67% |
32,742 |
825 |
| China |
1,313,973,713 |
9,326,410 |
141 |
14.86% |
1,385,905 sq km |
948 |
| Congo |
62,660,551 |
2,267,600 |
28 |
2.86% |
64,853 |
966 |
| United Kingdom |
60,609,153 |
241,590 |
251 |
23.23% |
56,121 sq km |
1,080 |
| Switzerland |
7,523,934 |
39,770 |
189 |
9.91% |
3,941 |
1,909 |
| Egypt |
78,887,007 |
995,450 |
79 |
2.92% |
29,067 sq km |
2,714 |
| Japan |
127,463,611 |
374,744 |
340 |
11.64% |
43,620 sq km |
2,922 |
| Bangladesh |
147,365,352 |
33,910 |
4,346 |
55.39% |
18,783 sq km |
7,846 |
Several things can be seen from this table. The basic densities (population
divided by land area) are the same for New Zealand and Norway at 15 people
per square kilometre. But Norway’s mountainous geography and cold
climate means it has much less arable land so the arable densities are
275 and 555 respectively – the difference is double. Australia,
despite having large areas of outback, still has a low AD because of its
low relative population.
Looking at Europe, we can see the difference between France and the
UK – countries with identical populations but with very different
ADs. This is due to France being more than twice the size and having a
greater percentage of arable land. Ireland and the Czech Republic, both
considered rather 'un-industrialised' compared to France and the UK, also
have good densities; the former due to its low population and the latter
due to the large percentage of agricultural land.
Looking at some of the countries in Asia and Africa, they have high ADs
because they often suffer from either large populations, low areas of
arable land (from mountains, deserts and jungles) or both. We can see
that Egypt’s problem is due to the fact that only a small area around
the Nile and coast is suitable for agriculture while Japan’s is
a very high population in a small mountainous country. In a similar way,
Bangladesh has a very large population in a very small country; it has
the highest AD despite having over half of its land devoted to agriculture.
Fertilisers
| |
Arable Land (sq km) |
Nitrogen Fertiliser
Consumption |
Tonnes per sq km |
| Congo |
64,853 |
3,785 tonnes |
0.1 |
| Russia |
1,218,599 |
950,000 tonnes |
0.8 |
| Swaziland |
1,763 |
2,000 tonnes |
1.1 |
| Australia |
468,503 |
972,300 tonnes |
2.1 |
| Brazil |
586,036 |
1,816,000 tonnes |
3.1 |
| Canada |
415,573 |
1,629,763 tonnes |
3.9 |
| USA |
1,650,062 |
10,878,330 tonnes |
6.6 |
| Saudi Arabia |
32,742 |
224,000 tonnes |
6.8 |
| India |
1,451,809 |
10,470,810 tonnes |
7.2 |
| Czech Republic |
29,999 |
289,098 tonnes |
9.6 |
| Japan |
43,620 |
463,000 tonnes |
10.6 |
| Norway |
8,301 |
101,000 tonnes |
12.2 |
| France |
182,568 |
2,279,000 tonnes |
12.5 |
| Switzerland |
3,941 |
52,845 tonnes |
13.4 |
| China |
1,385,905 |
25,430,147 tonnes |
18.3 |
| United Kingdom |
56,121 |
1,142,000 tonnes |
20.3 |
| New Zealand |
14,848 |
305,597 tonnes |
20.6 |
| Ireland |
11,587 |
360,000 tonnes |
31.1 |
| Egypt |
29,067 |
1,068,923 tonnes |
36.8 |
| Bangladesh |
18,783 |
1,049,900 tonnes |
55.9 |
Fertiliser consumption figures from the F.A.O.
Another aspect of agriculture that we can look at is the use of
petrochemicals. The more fossil fuel-based fertilisers and pesticides
that a country uses, the harder it will be to change to an organic form
of agriculture. Soils take several years to recover after having been
used with a monoculture system and the farmers have to learn to change
to the new system.
The table above shows the amount of nitrogenous fertilisers
(made from natural gas) used per square kilometer of arable land and
gives an indication of how industrialised the agriculture is. We can
see that, while countries like Russia and the USA use large amounts
of fertilisers, the amount used per square kilometer turns out to be
rather small because of the large areas of arable land available. The
countries with the worst situation are those with very large populations
and small areas of arable land although it is rather surprising to see
countries like New Zealand and Ireland so badly placed.
Energy
Energy is another vital ingredient in a country’s
survival but rather more complicated than the look at agricultural density
above. There is, for instance, the energy consumed which comes in various
flavours – electricity, oil, coal, etc. Then there is the country’s
energy resource. Finite sources such as oil, gas, coal and uranium are
obviously short term but useful for aiding the transition to the post-oil
society. We also need to think of the renewable sources; how much potential
energy is there available for wind, solar, tidal, etc? (We should be
cautious about bioenergy since, with the decline of oil and gas, we
may find agricultural land in short supply and have enough problems
growing food, let alone biocrops.)
Electricity Usage
The data for energy is harder to put into figures but
we can examine some numbers (Per Cap. = per capita consumption)
| |
Population |
Electricity Consumption |
Per Cap. |
| Congo |
62,660,551 |
4,324,000,000 kWH |
69 kWH |
| Bangladesh |
147,365,352 |
16,200,000,000 kWH |
110 kWH |
| India |
1,095,351,995 |
519,000,000,000 kWH |
474 kWH |
| Egypt |
78,887,007 |
78,160,000,000 kWH |
991 kWH |
| Swaziland |
1,136,334 |
1,161,000,000 kWH |
1,022 kWH |
| China |
1,313,973,713 |
2,170,000,000,000 kWH |
1,651 kWH |
| Brazil |
188,078,227 |
359,600,000,000 kWH |
1,912 kWH |
| World |
6,525,170,264 |
15,450,000,000,000
kWH |
2,368 kWH |
| Saudi Arabia |
27,019,731 |
134,900,000,000 kWH |
4,993 kWH |
| Czech Republic |
10,235,455 |
56,500,000,000 kWH |
5,520 kWH |
| Ireland |
4,062,235 |
22,970,000,000 kWH |
5,655 kWH |
| Russia |
142,893,540 |
811,500,000,000 kWH |
5,679 kWH |
| United Kingdom |
60,609,153 |
346,100,000,000 kWH |
5,710 kWH |
| France |
60,876,136 |
433,300,000,000 kWH |
7,118 kWH |
| Japan |
127,463,611 |
946,300,000,000 kWH |
7,424 kWH |
| Switzerland |
7,523,934 |
55,860,000,000 kWH |
7,424 kWH |
| New Zealand |
4,076,140 |
37,030,000,000 kWH |
9,085 kWH |
| Australia |
20,264,082 |
221,000,000,000 kWH |
10,906 kWH |
| USA |
298,444,215 |
3,656,000,000,000 kWH |
12,250 kWH |
| Canada |
33,098,932 |
520,900,000,000 kWH |
15,738 kWH |
| Norway |
4,610,820 |
106,100,000,000 kWH |
23,011 kWH |
This first table shows per capita electricity consumption
– a very important figure as the higher the consumption now, the
more has to be supplied eventually by renewables or the greater the
reduction in usage. As we might expect, countries in Africa, South America
and Asia (except Japan) have low figures while the USA is near the top.
It might be more surprising to see Canada and Norway at the top but
we can reasonably assume that it is the cold climate combined with abundant
hydroelectric power which necessitates such high usage. This may cause
problems for these countries and others like them in the future: Norway’s
oil and gas will not last for ever and Canada’s tar sands reserves
will be too slow-flowing and energy-intensive to replace present needs.
Fossil Fuels
What about each country's fossil fuel resource? Although
these are obviously finite, they are nevertheless very important to
help a country make the transition to the sustainable society. The problem
comes in measuring the different types and equating them to their usefulness.
We could simply convert the reserves to a common measurement (such as
megajoules) and add them up but not all fuels are created equal. Canada's
tar sands may be far greater than Saudi Arabia's conventional oil but
any knowledgeable person would prefer the former to the latter (see
Unconventional Oils). The energy
from countries' coal reserves are often far greater than that from oil
and gas, but coal has many more disadvantages (see Coal).
Ideally we would have to weight the values of the different fuels but
that is a far more complicated equation that I want to do here.
If you go to the trouble of converting the values of the countries
to megajoules and comparing them,you will find that Russia and the
USA come out pretty equal, with China in third place with about half
the energy (using conventional oil reserves.) A bit further back is
India, then Australia and Saudi Arabia. The rest come out much further
behind.
On the other hand, about 94% of the USA's potential fossil fuel energy
lies in coal whereas only 62% of Russia's does. The latter's combined
oil and gas is far greater than any other country's, including Saudi
Arabia. Three of the other countries mentioned (China, India and Australia)
also have primarily coal-based resources (92%, 97% and 94% respectively).
As we pass the peak, it is the remaining oil and gas which will be
most in demand rather than coal with its high pollution and difficult
extraction processes. These will bring in the money, these will trigger
resource wars.
However we compare the energy, it is clear that Russia
and the USA have the largest sources of fossil fuels to utilise with
China also well-placed. In the short term, it is Russia and Saudi Arabia's
oil and gas which will be most important. The question is, though, what
the countries will do with these – waste them on prolonging our
present-day energy-wasteful society or use them to prepare for the future?
Renewables
Ideally we should also look at the potential for renewable
energy in these countries but there are no easily available statistics
on the Internet. It should not be difficult to gather average sunshine
hours or average wind speed per square kilometer but I have not been
able to find any.
Looking at the two main sources, wind and solar, climate
fortunately quite often separates the two. Countries or areas in the
maritime climate zone (eg. Ireland and the UK) tend to get plenty of
wind but the skies are often covered with clouds. Continental zones
like Germany and the Czech Republic will get less wind but more clear
days. Many African countries, lacking in fossil fuels, have plenty of
potential sunshine (if they can find the money to build the infrastructure
to utilise it).
I suspect the problem with renewables is not what is available,
but whether a particular country will take the effort to make use of
it.
Consumption by Fuel
One area of renewables that we can compare now
is hydroelectricity, a source that is already well-developed (and with
little hope of further expansion compared to other renewable options).
We can look at the data in the BP Statistical Review for "primary
energy consumption by fuel" to see which countries are already
making use of hydro.
| |
Oil |
Gas |
Coal |
Nuclear |
Hydro |
| Norway |
22% |
9% |
1% |
0% |
68% |
| Brazil |
43% |
9% |
7% |
1% |
40% |
| New Zealand |
39% |
18% |
12% |
0% |
31% |
| Switzerland |
44% |
10% |
0% |
19% |
27% |
| Canada |
32% |
26% |
10% |
7% |
26% |
| World |
36% |
23% |
28% |
6% |
6% |
| Russia |
19% |
54% |
16% |
5% |
6% |
| China |
21% |
3% |
70% |
1% |
6% |
| India |
30% |
9% |
55% |
1% |
6% |
| Egypt |
52% |
41% |
1% |
0% |
6% |
| France |
36% |
15% |
5% |
39% |
5% |
| Japan |
47% |
14% |
23% |
13% |
4% |
| USA |
40% |
24% |
25% |
8% |
3% |
| Australia |
33% |
19% |
44% |
0% |
3% |
| Czech Republic |
22% |
17% |
46% |
13% |
2% |
| Bangladesh |
23% |
74% |
2% |
0% |
2% |
| UK |
36% |
37% |
17% |
8% |
1% |
| Ireland |
63% |
23% |
13% |
0% |
1% |
| Saudi Arabia |
58% |
42% |
0% |
0% |
0% |
From this table, we can see that Norway comes out well
on top with over two-thirds of its electricity being generated from
hydroelectricity while Saudi Arabia is utterly dependent on its oil
and gas reserves. If it sells them off for present-day profit without
investing in renewables, it will be in big trouble when peak oil really
hits. France is also very over-dependent on a a finite fuel –
uranium. If much of the world turns to nuclear as oil and gas decline,
France may find itself over a barrel as the cost of uranium soars.
Government
The one important element that we cannot examine with
statistics is the form of government that a country holds. Different
forms will cope better with the oil decline. One of the disadvantages
of democracy is that politicians tend to be short-termed in their outlook,
being primarily concerned with re-election so their concern tends to
be no more than a dozen years at most. Unpopular measures that will
only bring benefits twenty or thirty years ahead are rarely taken as
the government will not see the effects of their work until long after
they are gone. They are also quite likely to be thrown out of office
very soon anyway as an opposition offering short-term benefits will
usually proper at an election.
Another disadvantage is that the electorate will tend
to look to what benefits them rather than their descendents and vote
in such a way. Democracy is very good for satisfying the immediate desires
of the country, not for the future benefits.
As we can see when comparing Cuba and North Korea, an
authoritarian regime with a strong dictator can be both beneficial and
detrimental, depending on the way the leader deems to go. The harsh
conditions that result from peak oil may well bring more martial law
and draconian measures, and even the most democratic countries may find
it hard to hang onto their freedoms. We are already seeing centuries
of hard-won rights being eroded away in countries such as the UK and
USA under the spurious banner of security. What will happen when food
and energy prices soar and resource wars break out?
But we must not be too pessimistic. There is always the
possibility of a strong, forward-thinking leader emerging, even in the
least likely countries. When Mikhail Gorbachev became president of the
Soviet Union in 1988, how many would have thought that the USSR would
break apart within three years?
Results
| |
Agr. Density |
Fertilisers |
Elec. Consump. |
Fossil Fuels |
Present Renew |
TOTAL |
| Bangladesh |
0 |
0 |
10 |
0 |
0 |
10 |
| Egypt |
7 |
3 |
10 |
0 |
1 |
21 |
| Japan |
6 |
8 |
7 |
0 |
1 |
22 |
| Ireland |
10 |
4 |
8 |
0 |
0 |
22 |
| UK |
9 |
6 |
8 |
0 |
0 |
23 |
| France |
10 |
8 |
7 |
0 |
1 |
26 |
| Canada |
10 |
9 |
3 |
0 |
4 |
26 |
| Czech Rep. |
10 |
8 |
8 |
0 |
0 |
26 |
| Switzerland |
8 |
8 |
7 |
0 |
4 |
27 |
| New Zealand |
10 |
6 |
6 |
0 |
5 |
27 |
| Norway |
9 |
8 |
0 |
0 |
10 |
27 |
| Australia |
10 |
10 |
5 |
2 |
0 |
27 |
| Swaziland |
9 |
10 |
10 |
0 |
0 |
29 |
| Congo |
9 |
10 |
10 |
0 |
0 |
29 |
| China |
9 |
7 |
9 |
4 |
1 |
30 |
| Saudi Arabia |
9 |
9 |
8 |
4 |
0 |
30 |
| India |
9 |
9 |
10 |
3 |
1 |
32 |
| USA |
10 |
9 |
5 |
8 |
0 |
32 |
| Brazil |
10 |
9 |
9 |
0 |
6 |
34 |
| Russia |
10 |
10 |
8 |
10 |
1 |
39 |
For the results, I created a simple scoring system (divide
the range of the relevant statistics by 10 and allocate points depending
on the value's position). It is not meant to be definitive by any means
but can give us an idea of a country's potential.
It is no surprise that Bangladesh finishes bottom with
only its electricity consumption in its favour. With a huge population,
a crowded country and poor energy sources, we can see why many people
expect the result of peak oil decline to be enormous numbers of refugees
fleeing there. Many countries,like Norway, sit somewhere in the middle
with a mixture of advantages and disadvantages. The North Sea bonanza
is running out and it has no coal to turn to when it has gone. Most
of its electricity comes from renewable hydroelectricity which is a
great benefit but electricity cannot be used to replace pesticides and
fertilisers, nor can it easily substitute for the oil used in transportation.
If Norway retains much of its oil and gas resource for these uses, it
could be well placed for the future. If it is sells them off for present-day
profit, it will find itself in as bad a situation (or worse) as many
other countries.
|
|
Help support this site by making a donation |
|
|