History of Economics notes - Bocconi
-
Upload
giorgi-kolbaia -
Category
Documents
-
view
21 -
download
0
description
Transcript of History of Economics notes - Bocconi
The Dawn of Modern Industry
Proto-industrialization term was first used with reference to the linen industry of Flanders: cottage-based
industry organized by entrepreneurs in Ghent who exported linen cloth to distant markets.
Dispersed, usually rural workers organized by urban entrepreneurs (merchant-manufacturers) who
supply the workers with raw materials and dispose of their output in distant markets
Cottage industry, domestic industry and putting-out system
Proto-industrialization usually refers to consumer goods especially textiles. Well before the advent of the
factory system in the cotton industry, other highly capitalized and large-scale industries existed (manufacture
royales – skilled artisans working under the supervision of a foremen --, deposits in coal industry etc). They
were overshadowed in the 18th century by the rise of new forms of enterprises.
Characteristics of Modern Industry
The most important difference between preindustrial and industrial societies is the diminished role of
agriculture less importance counterbalanced by greater productivity. These differences were first seen in
Great Britain and Scotland.
Main features of modern industry:
Extensive use of mechanically powered machinery machines performed tasks that had been done
more slowly or not done at all. Elementary machines like wheel, pulley, lever had always been used.
Introduction of new, inanimate sources of power, especially fossil fuels substitution of coal for
wood and charcoal for fuel, introduction of steam engine in mining, manufacturing and transportation.
Widespread use of materials that do not normally occur in nature new artificial or synthetic
materials
Larger scale of enterprises in most industries
The industrial Revolution: a misnomer
Early descriptions emphasized “great inventions” and the dramatic nature of changes “The change was
sudden and violent. The great invention were made in comparatively short space of time”. More recently some
scholars devoted their time to measuring the changes in industrial production, national income and discovered
they were very modest. According to Ashton, “the changes were not merely “industrial” but also social and
intellectual.”. The word “revolution implies a suddenness of change that is not proper of economic processes”.
Prerequisites and Concomitants of Industrialization
Intellectual changes were surely the most fundamental changes, in the sense that they encouraged or permitted
the others.
Possibility of harnessing the forces of nature the scientific achievements associated with Newton,
Descartes, Copernicus reinforced such ideas. The influence of Bacon (“knowledge is power”) led to
founding the “Royal Society”. However, it was not until the 19th century that the scientific theories
provided the foundation for new processes and industries. Nonetheless, the scientific method was being
applied (observation and experiment) for utilitarian purposes. A major part of the innovations was
made by ingenious self taught mechanics and autodidacts. It’s better to say trial-and-error than
experimental method in this case.
Increase in agricultural productivity by the end of the 17th century 60% of people in England were
involved in agriculture, especially food production. The most important innovations were 1)convertible
husbandry with alternation of field crops with temporary pastures in place of permanent arable land
and pastures restoring fertility of the soil through improved rotation (ex: leguminous), carrying a
large number of livestock, thus producing more dairy, meat and wool. 2) improved rotation and
selective breeding
A precondition for both were enclosures. Before it was impossible to achieve agreements on the
introduction of new crops or rotation; and with livestock grazing in common herds it was difficult to
perform selective breeding. The most famous enclosures were those carried out by the Parliament acts
between 1760-end of Napoleonic Wars. But there were also private agreements.
A concomitant phenomenon was the gradual tendency towards larger farms By 1851 about 1/3 of the
farms were larger than 300 acres. Even so, the occupiers of small farms outnumbered those of the others by
almost 2:1. This is because small farmers were owner occupiers while larger farmers were capitalistic
tenants hiring people to cultivate their fields. It’s usually thought that enclosures depopulated the
countryside but actually there was an increase in the demand for labor (for the new techniques). Only in the
II half of 19th century with the introduction of machines as threshers and harvesters, the demand
diminished.
Increased productivity enabled the agriculture to feed a burgeoning population at steadily rising standards of
nutrition. It produced surplus for export before the rate of population growth overtook the rate of increase in
productivity. The relatively prosperous rural population provided a real market for manufactured goods
(agricultural implements, porcelain). General process of commercialization in the entire nation.
The origins of the English banking system are obscure, but in years after the Restoration of 1660 some
goldsmiths in London began to function as bankers. They issued deposits that circulated as banknotes,
and granted loans to creditworthy entrepreneurs. The founding of Bank of England in 1694 forced
private bankers to stop issues of banknotes (monopoly), which nonetheless continued to function as
banks of deposits (accepting drafts and discounting bills). The Royal Mint was inefficient: the
denomination of the coins was too large to be useful in paying wages or in retail trading. To fill the gap
merchants issued scrips and tokens that served the needs of local monetary circulation origin of
country banks.
The euphoria of the Glorious Revolution resulted in the creation of joint-stocks companies in the 1690s (like
the Bank of England). It culminated in the financial boom known at the South Sea Bubble (the South Sea
company was created in 1711 with the sole purpose of raising money to prosecute the war). The bubble burst
in 1720 when Parliament passed the Bubble Act: it prohibited the formation of joint stock companies with the
express authorization of the Parliament (normally very loath to grant it). The Act was repealed in 1825. The
IR started without such an important provision of capital. Another consequence of the Glorious Revolution was
to place the public finances in the hands of the Parliament it reduced cost of public borrowing and thereby
freed capital for private investment. It is questionable whether much of it went into the industry directly (but
surely indirectly through transportation & infrastructure investment).
The movement of a large quantity of bulky-low valued goods required cheap and dependable
transportation. Before the railway era water routes provided the most economical and efficient arteries
of transport (island location & good ports). But the demand for improved transportation facilities
increased: river and harbor improvements, canal construction (with private companies chartered by act
of Parliament – an exception to the Bubble Act). There was also a need for inland transportation. The
road were responsibility of parishes, using the forced labor of local inhabitants (deplorable state).
Parliament created turnpike (strade a pedaggio) trusts that undertook to build and maintain stretches
of good roads.
Industrial Technology and Innovation
A century before the industrial revolution (i.e. mechanization of cotton industry), two innovations were
made whose impact was even greater to industrialization, even if many years passed before their importance
was felt:
1) process for smelting iron ore with coke (no more reliance on charcoal) in 1709 Darby
processed coal fuel in the same way other ironmasters made charcoal out of timber. He heated coal in a
close container to drive off impurities in the form of gas, leaving a residue of coke, an almost pure form
of carbon, which he then used as fuel in the blast furnace to make pig iron (ghisa). The continued rise of
the price of charcoal together with such innovations as Henry’s Cort puddling and rolling process of
1783 finally freed the production of iron from reliance on charcoal fuel.
2) invention of the atmospheric steam engine it’s a new and powerful prime mover that
supplemented and eventually replaced wind and watermills as inanimate sources of power. It was first
employed in mining industries. Expanded demand for coal need to extract it from deeper mines.
Some devices were invented but presented technical problems (Thomas Savery invented a steam
pump, which he called “The Miner’s Friend”, but had practical defects such as the tendency to explode).
Thomas Newcomen, however, set out the remedy to these defects by trial-and-error and invented the
atmospheric steam pump. It was mainly employed in coals mines where coal was cheap. The major
deficiency was large consumption of fuel Watt took out a patent for a separate condenser
(eliminating the need for alternate heating and cooling the cylinder). A problem was to find a smooth
cylinder to prevent the steam from escaping. He formed a partnership with Boulton and together used
Wilkinson’s new machine for making cannon barrels as an engine cylinder commercial production
of steam engines. With a number of other improvements they began to be used in other industries
such as flour milling and cotton spinning.
Textile industry The cotton industry had grown prominence in the putting-out system. Wool was more
important in England and Wales, while linen in Scotland and Ireland (it was the material used to bury
people). The silk industry used factories and water-powered machines in imitation of the Italians, but the
demand was low due to high cost and continental competition. Cotton cloth was introduced in Lancashire in
the 17th century. Since it was new, it was less subject to restrictive legislation and guild rules and to
traditional practices that obstructed technical change. Some labor-saving inventions:
1) John Key’s flying shuttle (1733): enable one person to do the work of two, nonetheless increasing
the demand for yarn (filo)
2) James Hargreaves’ spinning jenny (invented in 1764, patented in 1770): spinning wheel with a
battery of several spindles instead of one.
3) Richard Arkwright’s water frame (1769): since it operated with water power and was heavy,
factories were built near streams and required few adult males, while children and women were mostly
used.
4) Samuel Crompton’s mule: combined elements of the frame and jenny: it could spin finer and
stronger yarn. After being adapted for steam power, it became the favorite machine for spinning. It
allowed the large scale employment of children and women (like the frame) but also the concentration
of factories in cities where coal was cheaper (unlike the frame).
5) Edmund Cartwright’s power loom (telaio) (1785): replaced the handloom weavers.
raw materials: the supply was not keeping up with the demand because it was costly to separate seeds
by hand even with slave labour. The invention of the “gin” (engine) made the South US the major supplier of
raw material. The drastic reductions in the price of cotton manufacture affected the demand for wool and
linen: these industries were encrusted with tradition and regulation and the physical characteristics of their
raw material also made them more difficult to mechanize.
Manufacture industry Also other industries were involved in drastic changes. Adam Smith wrote in the
Wealth of Nations of the great increases in productivity in a pin factory just by specialization and division of
labor. It’s a symbol of all the industries involved in the manufacture of consumer goods (pottery, pans,
clocks etc). 1) pottery: The introduction of a fine porcelain from china led to a fashion to substitute it for
gold and silver plates + popularity of tea and coffee led them to prefer “chinaware” to wooden or pewter
bowls. 2) chemical industry: advances resulted from the work of Lavoisier + empirical experiment of
manufacture of soap, paper, glass, dyes etc. Chemists learned from the industrial use of substances as
much as the latter benefited from chemical science. An example: sulfuric acid, known to alchemists, whose
production was expensive and dangerous due to corrosive properties. Samuel Garbett started producing it
on a larger scale and replaced sour milk and buttermilk in the textile industry. It was then replaced by
chlorine gas as bleaching agent. Another group of widely used chemicals was caustic soda and potash.
Coal industry coal mines were responsible for the first railways. In the 17th century, tracks and rails had
been used in the vicinity of mines to facilitate haulage, with horses as the usual draft animals. The steam
locomotive was the product of a complex evolutionary process with many ancestors. steam engine: too
heavy and cumbersome and did not generate enough power per unit of weight to serve as locomotive.
Moreover, Watt himself opposed to this use (dangerous) and as long as his patent was in force (until 1800)
effective progress was barred. Richard Trevithick built the first locomotive (not an economic success): road
couldn’t bear the weight. He built another for coal mines but again problem with weight. George Stephenson
was more successful: he built a stationary steam engine with cables for hauling empty coal back to the mine
from the loading wharves. In 1822 he persuaded a mine to use it instead of horses.
Regional Variation
England 1) coal fields in the northeast and Midlands + Lancashire. 2) cotton in Lancashire + East
Midlands (Derby and Nottingham). 3) iron industry: West Midlands (Birmingham), South Yorkshire and
northeast (New Castle). 4) woolen industry: Leeds + East Anglia 5) pottery industry: Staffordshire. The
south was wealthy but mostly agricultural. On the contrary, the north lagged behind most other regions
in income and wealth.
Wales large iron industry mainly concentrated in the south (Swansea). The interior part of the
country, infertile and mountainous, remained pastoral and poor.
Scotland Unlike Wales, maintained its independence form England until 1707. It was backward and
poor, the majority of population still engaged in near-substance agriculture. Less than a century later, it
produced more than a fifth of cotton textiles and more than a fourth of the pig iron. Scotland
remarkable transformation has long been debated. 1) not a lot of natural resources 2) its inclusion in
the British Empire gave access to the market (especially colonies in North US). 3) educational system,
with parish schools and 4 universities (#2 in England) 4) precocious banking system, free of
government regulation, gave easy access to credit and capital. 5) absence of a central government
Ireland its population more than doubled without appreciable industrialization or urbanization.
When the potato famine struck in 1840s, Ireland lost a fourth of its population in less than a decade
through starvation and emigration.
Social Aspects of Early industrialization
Population increased during the industrialization, until reaching a peak in 1811-20 (then slightly declined). It
was a general European phenomenon, but certainly related with industrialization (in part) 1) the rate of
birth rose for early marriages (cottage industry allowed couple to set up households without waiting for a
farmstead or completing an apprenticeship) 2) death rate declined for the introduction of inoculation against
small pox + vaccination + introduction of new hospitals + rise of standard of living 3) agricultural progress
brought abundance and variety of foodstuffs, improving nutrition 4) increased coal production made for
warmer dwellings 5) soap production indicated awareness of personal hygiene 5) cotton cloth contributed to
higher standards of cleanliness.
Immigration and emigration affected the population. The economic opportunities of England and Scotland
attracted Irish people (even before the famine) + British, Scottish, Welsh and Irish left for English colonies.
Even more important for economic process was internal migration From the countryside to growing
industrial areas, it created two important changes in the special distribution: 1) a shift in density from the
southeast to the northwest 2) increasing urbanization. The census of 1851 classified more than half of the
population as urban . The growth of city was not an unmixed blessing: nonexistent sanitary facilities, no
drainage facilities, narrow and unlighted streets. Deplorable conditions arose from inadequate planning and
lack of experience of local authorities. Although the agricultural force continued to grow, the increase of the
rural population was not absorbed by cottage industry as well as purely agricultural labor.
Factory workers received higher wages than agricultural workers/workers in domestic industry because of
higher productivity as result of technological advance and provision of more capital per worker. This is only
true for adult males, not children and women (the idea that their employment is a novelty of the IR is
misleading). Real wages started rising due to high demand of labor which increased the standard of living.
Some groups like factory workers and skilled artisans improved their lot, while handloom weavers disappeared
as a result of technological obsolescence. On balance, there was a gradual improvement, even if the distribution
of wealth became more and more unequal.
Economic Development in the 19th century: Basic Determinants
The 19th century witnessed the definite triumph of industrialism as a way of life in Europe, especially western
Europe. The transformation took different shapes depending on local circumstances and timing of the onset of
the industrialization.
Population
By 1800 the population had risen to almost 200 million (1/5 of the estimated total). Population growth
continued in the 19th century (the rate in Europe decreased, while in the rest of the world increased). Such
rates were unprecedented: apart from short term fluctuations (the Black Death), population had doubled every
1000 years until the 18th century, while in the 19th it doubled in less than 100 years (now <30 years). Britain
and Germany (very industrialized) had rates of growth in excess of 1%. Russia was the one with the highest
rate (despite being backward), while France lagged for behind the others. Thus no clear correlation between
industrialization and population growth.
Other causal factors 1) improvement in transportation allowed large-scale importation of foodstuff
from overseas. Agricultural resources were a constraint 2) increase in agricultural production: amount of
cultivated land increased (ex Russia + East Europe) + output per worker increased due to better knowledge of
soil chemistry (fertilization) + use of tools and implement (lower cost of iron). 3) cheap transportation
facilitating migration of population. Migration was of two kinds: international and internal. People moved
(almost always voluntarily, in response to economic pressure) to US, Canada, South America. Important
regional shifts took place in all countries: a fundamental change is the growth of urban population (in toto and
as percentage of the total). At the beginning of 19th century Britain was the most urbanized nation (30% of
population) + similar proportion in the Low Countries. The population was mostly concentrated in large cities
(the proportion of people living in large cities had risen from 27% to 70%). Many reasons for that: before it was
impossible to supply large urban population with the necessities of life (cheaper to carry food and raw
materials to distant markets than to concentration of workers), but after the introduction of steam power and
factory system, the transition from charcoal to coke as fuel and improvement in communication, the situation
changed.
Resources
Europe didn’t experience any increase in the natural resources, but the ones formerly unknown or of little
value acquired importance. This is the case of coal: regions well endowed became the leaders of
industrialization, while those not well endowed imported it (when hydroelectricity was introduced, some of
these regions such as Switzerland, France and Italy obtained a new source of competitive advantage). There
was a systematic search for previously unknown resources and scientific research to enhance their exploitation.
In the 19th century the search for new materials led Europe to extend control over parts of Asia and Africa.
The development and diffusion of technology
According to Simon Kuznets, an economic epoch is determined and shaped through the applications and
ramifications of an “epochal innovation”. For example a large part of economic history from 1492 to 1776 can
be explained by reference to the progress of exploration and discovery, maritime commerce and growth of
navies. The modern economic epoch is associated with this epochal innovation: “extended application of
science to economic processes” (latter half of the 18th century). But as we said before, it’s better to refer to it
as “era of the artisan inventor”. After 1870 however, scientific theories formed the basis of technological
progress: electricity, optics, organic chemicals influenced metallurgy, power production, food processing and
preservation.
We have to make a clear distinction between invention, innovation and diffusion of a technology.
Invention refers to a patentable novelty of a mechanical, chemical or electrical nature. It has no
particular economic significance until it’s inserted in the economic process (i.e. when it becomes an
innovation). That’s the case of Watt’s separate condenser who became useful only when in partnership
with Boulton the steam engine was commercially produced.
Diffusion refers to the process by which an innovation spreads within a given industry, among
industries and across geographical frontiers. It’s not an automatic process of replicating the initial
innovation (it has to be adapted to the different conditions met).
The industrial superiority of GB rested on major technological advances in the 2 main industries (cotton textile
and iron manufacture). Until about 1870 the effort of many continental industrialist was devoted to acquiring
and naturalizing these technological gains. Meanwhile, however, the pace of technological change accelerated
and spread to industries not previously affected by science-influenced technology nonexistent industries
were created ex-novo.
Transport and communication
The steam locomotives and iron/steel railway, more than any other innovation, epitomized the economic
development. Before inadequate transportation was an obstacle in Europe and US to industrialization. Lacking
Britain’s endowment of waterways and handicapped by greater distances to cover, American industrialists
found themselves in a market with little scope for extensive specialization and extensive capitalization
railways offered cheaper transportation and increased demand for iron, coal, timber etc.
Railways Starting from the opening of Stockton-Darlington and Liverpool-Manchester railway (1825)
British network developed rapidly (also thanks to liberal parliamentary policy, allowing the formation of
joint-stock companies). US outstripped even Britain and rivaled all Europe in the construction of railways
(it drew on European capital and on enthusiasm of private promoters and local governments to span vast
distances). Belgium, rejoicing its newly won independence, resolved to build a comprehensive network at
state expense to facilitate export. Germany, although divided, began with the Nurenberg-Furth line and
achieved a lot (both private and state enterprises). In France, the parliamentary discussion on that rivalry
(private vs state-owned railways) held up the railway era until the coming of the II Empire (although a plan
was already present). In Austria by midcentury only 1700 km of railways were in operation and those
almost exclusively in Bohemia and in the German speaking portions of the empire. In Netherlands
transports were facilitated by the network of canals and few bricks of highways (flat territory). In Italy only
a few short railways had been constructed until the advent of Camillo Benso of Cavour. In Russia the tsar
connected Moscow and St. Petersburg (the history says he drew a straight line on a map and said that this
was to be the railway). In other parts of Europe only after the midcentury it was the great age of railways.
They were primarily build with the aid of British engineers. Continual improvements in locomotive design
created the huge machines we know (electric traction and diesel engines challenged steam engines). The
famed Orient Express from London to Paris to Constantinople made its first run in 1888.
Ships The steamship, although developed before the locomotive, played a less vital role in the expansion
of commerce and industry until the late century. In the first half of the century steamers made their greatest
contribution in the development of inland commerce. Credit for the invention of the steamboat is given to
the American Robert Fulton, whose ship Clermont made its first run on the Hudson in 1807. Regular
transatlantic voyages started in 1838 (in 1840 Samuel Cunard inaugurated his famous line). The true age of
ocean steamers did not arrive until the invention of screw propeller, compound engine, steel hulls and the
opening of the Suez Canal.
Written & Oral Communication
1) Some important innovations were the paper making machinery (1800) and the cylindrical printing
press, first used by the Times in 1812, greatly reduced the cost of books and newspaper. Wood pulp
replaced rags as raw material in 1860s. This contributed to bringing literacy to the masses. In 1885 the
linotype machine was invented, further extending the influence of the daily newspaper. The invention of
lithography and photography made possible the dissemination of visual images. The mail system adopted a
flat-rate, prepaid postal charges and favored the use of mail.
2) invention of the electric telegraph by Morse + successful submarine cable laid under the English
Channel in 1851. The telephone was patented by Bell in 1876.
3) Marconi invented the wireless telegraphy (radio) in 1895. In the 1901 a message was transmitted
across the Atlantic. In the field of business communication the invention of the typewriter helped busy
executives to keep up with the work and played also a role in bringing the women in the office work force.
The Institutional Framework
Some legal and social environments are more conductive to advance than others Europe gave wide
scope to individual initiative and enterprise, to freedom of occupational choice and geographical and social
mobility, relied on private property and the rule of law, emphasized the use of rationality and science in the
pursue of material ends.
Legal Foundations
GB had acquired a modern framework for economic development, adapted both social and material innovation
“common law” (because from at least the Norman Conquest it was common to the entire kingdom of
England). The distinctive feature is its reliance on custom and precedent as set forth in written legal decisions,
its flexibility. It provided protection for private property and interest against the depredation of the state and at
the same time protected the public interest from private exactions (e.g. by prohibiting combination in restraint
of trade). It also incorporated the “merchant law”. It became the basis for the legislation of US and British
colonies.
On the Continent, the French Revolution, by shattering the Old Regime, opened new vistas and opportunities
for enterprise and ambition the charter of the new order has to be found in the “Declaration of Rights of Man
and Citizen” (borrowed from American Declaration of Independence, itself borrowed from the French
philosophes). It declares “men are born free and equal in their rights”, that is liberty, property, security and
resistance to oppression. The necessary guarantees are: uniformity of laws, freedom of speech and of press,
equitable taxation. In addition to abolishing the feudal regime and establishing private property, the
revolutionary assemblies did away with all the internal custom duties and tariffs, abolished guilds and the
whole apparatus of regulation in industry, prohibited monopolies, chartered companies, and replaced
the old with a new rational taxation system. They also prohibited organizations or associations of both
workers and employers. These revolutionary reforms were extended in all the conquered lands (Belgium, Italy,
part of Holland and Germany, Prussia). In the end modern French institutions received their stamp from
Napoleon who had the ability to synthetize the rational achievements of the revolution with the deeply
ingrained habits and traditions.
Code civile (1804) compromise between the Roman Law and new revolutionary principles: equality
before the law, a secure state, freedom of conscience and economic freedom. It reflected the
preoccupation of the propertied classes it protects property as an absolute, sacred, inviolable right. It
recognized the bill of exchange and authorized loans at interest.
Code de Commerce (1807) distinguished 3 type of enterprise: 1) simple partnerships, where the
partners were individually and collectively liable for all debts of the business 2) sociétés en
commandite, limited partnerships in which the active partners assumed unlimited liability, while the
silent or limited partners risked only the amount they actually subscribed. 3) sociétés anonymes,
corporations in the American sense with limited liability for all owners. For these privileges, each
anonyme had to be chartered by the Government (very loath to grant them). On the other hand, a
commandite could be established just by registering to the notary public and became the favorite form
of business: it allowed to gather capital for commerce and industry in the transitional period before free
incorporation (corporations were present in US already from 1840s).
N.B. In UK (1720: Bubble Act) 1825: The Bubble Act is repealed but incorporation has to receive a special
charter until 1844 when associations of 25+ people were allowed to form joint-stock companies by simple
registration. Limited liability was completely available only from 1850s and under certain conditions.
Patterns of Development: The Early Industrializers
Three ways to interpret the phenomenon of Industrialization:
1. The process of industrialization is a European wide phenomenon (US was influenced by European
culture) Some scholars had even estimated the “European gross national product”: easy to criticize but
true in general for 1) numerous short-term fluctuations and 2) the steady long-term growth.
2. Industrialization was basically a regional phenomenon the region might lie within a single nation
(Lancashire) or across different boundaries (Austrasian coalfields).
3. Industrialization can be seen in terms of national economies different advantages: 1)most measures
of economic activities are collected in terms of national economies. 2) the institutional framework and the
policies intended to influence the direction and character of the activity are most often set within national
boundaries.
These interpretations are not mutually exclusive
Great Britain
At the end of the Napoleonic war it was the leading manufacturing nation, producing ¼ of the total world
industrial production. Moreover it emerged as the world leading commercial nation as well, accounting for
between ¼ and 1/3 of total international commerce. After 1870, although output and trade continued to
increase, it gradually lost his lead (US overtook it in industrial production in the 1880s and Germany in the
1900s). It was still the leading commercial nation closely followed by the other two textiles, coal, iron and
engineering were the basis of English prosperity:
Textiles: in 1880 the production of cotton yarn and cloth surpasses that of the rest of Europe combined
Iron: peak around 1870, producing more than half of the world’s iron. In 1890 US snared the lead.
Coal: Britain maintained its lead in Europe and produced a surplus for export.
Engineering: can trace its root in all the aforementioned industries textile industry needed machine
builders and menders, iron industry produced its own, coal industry needed pumps and cheap
transport (steam engine and railways). The foreign demand of British expertise, materiel and capital
provided a strong stimulus for the whole economy. Another was the evolution of the shipbuilding
industry from sail to steam propulsion and from wood to iron. In the 1900s the British shipbuilding
industry produced more than 1 M tons a year (more than 80% of the total).
These achievements notwithstanding, the pace of GB industrialization doesn’t have to be exaggerated even
as late as 1870 half of the total steam horsepower was in textile. The great majority of industrial workers
in 1850 were not in large-scale factories but craftsmen in small workshops. Agriculture was still the largest
employer (until 1920) with domestic service second. Britain reached the peak of industrialization in 1850-70.
The growth rate of GDP was 2.5% (less than US and Germany, and on a per capita basis lower than France,
considered a laggard). How should this lackluster performance be evaluated?
Growth rates are misleading because units with a small statistical base can post high growth rates with very
modest absolute increments of increase Britain’s relative decline was inevitable, it could not keep its
preeminence indefinitely.
In view of vast resources of Russia and US it’s not surprising that they would overtake GB in total output.
It’s more difficult to explain the low rates in GDP per capita.
Availability of resources and access to raw materials as a problem: the cotton industry had
always depended on imported raw material, native ores of nonferrous metals were gradually
depleted or could not compete with the cheap supply from overseas.
Entrepreneurial failure: despite having very successful entrepreneurs (Lever Brothers and
Thomas Lipton), late Victorian entrepreneurs did not exhibit the dynamism of their forebears since
they adopted the lifestyle of leisured gentlemen and left the day-to-day operations to hired
managers. Signs of lethargy were the tardy introduction of organic chemicals, electricity, aluminum,
the slow and incomplete adoption of the Thomas-Gilchrist process and Siemens-Martin furnace
(although many inventors were British)
Educational system: GB was the last major Western nation to adopt universal public elementary
schooling, important for training a skilled labor force. The few great universities paid little attention
to scientific and engineering education (Scottish did however): they were primarily engaged in
educating aristocrats with the classics.
Dependence on import and export for its material wellbeing : the commercial policies,
especially tariffs of other nations had important repercussions. Moreover, GB had by far the largest
merchant marine and the largest foreign investments, both important earners of foreign exchange.
Britain had an unfavorable balance of commodity trade the deficit was more than covered by
earnings of the merchant marine and foreign investments. The importance of these can be judged
comparing GNP growth between 1856-73 (2.5) with 1873-1913 (1.9). The comparable figures for
GDP (GNP minus foreign earning) were 2.2 and 1.8.
To conclude, the per capita real income increased by 2.5 times between 1850-1914, income distribution
became slightly more equal, the proportion of population in dire poverty fell and the average Briton in 1914
enjoyed the highest standard of living in Europe.
The United States
It’s the most spectacular example of economic growth in the 19th century.
Population growth In 1790 there were less than 4 millions inhabitants, while in 1870 almost 40 million.
Although they received a lot of immigration from Europe, the largest part is natural increase. The foreign-
born population never surpassed 1/6 of the population. The number of immigrants rose from 10.000 in
1820-30 to more than 1 million in the early 20th century (mainly Western Europe).
Income and wealth growth these factors grew even more rapidly than population. From colonial times
the scarcity of labor in relation to land meant higher wages and higher standard of living than in Europe.
The average income per capita at least doubled between the adoption of the Constitution and the outbreak
of Civil War. What the sources of this enormous increase?
1. Abundant land and rich natural resources they can explain high GDP per capita but not
growth.
2. Progress of technology and regional specialization (same factors in Europe)
3. Scarcity and high cost of labor placed a premium on labor-saving machinery, in agriculture as
well as industry. In Europe we have higher return per acre, but in US the use of relatively
inexpensive machines obtained far larger yields per worker. Similar situation in manufacturing.
4. Huge dimensions of US + varied climates and resources allowed a greater degree of regional
specialization At the time of the independence 90% of labor force was engaged in agriculture,
and much of the remainder in commerce. In 1789 the first factory industry was established by
Samuel Slater from England. This dichotomy (manufacture vs agriculture&commerce) was present
also in the political debate: 1) Hamilton wished to sponsor manufactures through protective tariffs
2) Jefferson promoted agriculture and commerce. Jefferson won but Hamilton’s ideas triumphed.
The New England cotton industry emerged in 1820s.
5. Size as potential for a large domestic market, free of artificial trade barriers to realize this
potential a good transportation network was needed. At the beginning of the 19th century
population was scattered, communication was through coastal shipping and a few rivers. To remedy
this deficiency the states and municipalities engaged in the construction of turnpikes and canals. A
reason for the disappointing performance of canals is the advent of railway: although for many
years they mainly depended on British technology and capital, by 1840 the length of railways
surpassed that of Britain and of all Europe. Railways were important not only as transportation
services, but also for their backward links to other industries especially iron and steel. After the
Civil War with the widespread adoption of coke-smelting, introduction of Bessemer and open
hearth process and the expansion of demand for railways, this quickly became the largest industry
is US.
In spite of the rapid growth of manufactures, US remained a predominantly rural country throughout the 19th
century. This was because much manufacturing took place in rural areas (ex. Iron industry). It was the advent
of electricity-generating stations that caused the decline of rural-based industries. Agricultural products
continued to dominate American exports, although the non-agricultural labor force surpassed workers in
agriculture in the 1880s, and the income from manufacturing began to exceed that from agriculture in the same
decade.
Belgium
It’s the first region to fully adopt the British model of industrialization. Despite its frequent upsetting political
changes (under Hasbourgs, France, Netherlands), it exhibited a remarkable degree of continuity in its pattern of
economic development proximity to Britain is not negligible but there were other fundamental reasons:
1. Long industrial tradition Flanders was an important center of cloth production in the Middle Ages,
and in the east the Sambre-Meuse was famous for its metal-wares and Bruges & Antwerp were the first
northern cities to adopt the Italian commercial model in the Middle Ages
2. Natural resources endowment resembled that of Britain easily accessible coal deposits and,
despite its small size, Belgium produced the largest output of any continental country until 1850. A
Belgian entrepreneur, Mosselman, played a leading role in founding the modern zinc industry
3. Location, traditions, political connections it received important infusions of foreign technology,
entrepreneurship, capital and enjoyed a favored position in certain foreign markets. The Biolley family,
natives of Savoy, settled in Terviers and entered the woolen industry. In 1720 O’Kelley erected the first
Newcomen steam pump near Liège. Ten years late Sanders build another for a lead mine at Vedrin. In
1791 the first Watt-type engine was installed near Paris. Coal miners were the largest users of both the
Newcomen and Watt varieties and also attracted the greatest amount of French entrepreneurship and
capital. The network of canals connecting northern France with the Belgian coalfields greatly facilitated
this traffic. The cotton industry grew up in the city of Ghent . Already the principal market for the rural
linen industry of Flanders, the city saw the establishment from the 1770s of several calico printing
works (te di cotone a stampe) (without mechanical power). At the beginning of the 19th century a local
entrepreneur went to England as an industrial spy and smuggled some Crompton mule spinning
machines, a steam engine and some skilled workers: he found the Belgian cotton industry. (storia della
Cockerill family: it became largest industrial enterprise in the Low Countries – coal, iron mines, blast
furnaces, refineries, rolling mills and machine shops.)
The Belgian Revolution (1830), mild in terms of loss of lives and property, nevertheless produced an
economic depression because of the uncertainty over the future. The depression was short and the middle
years of the decade witnessed a boom. The main reasons were: 1) government’s decision to build a
comprehensive railway network at state expense 2) a remarkable institutional innovation in the field
of banking and finance.
In 1822 King Willem authorized the formation of a joint-stock bank, the “Societè generale pour favoriser
l’Industrie des Pays-Bas” with headquarters in Brussels. He endowed it with state properties valued at 20
million florins and invested a considerable portion of his private fortune in its shares. Between 1835-38 it
created a societè anonyme with a combined capital of 100 million francs, including blast furnaces and
ironworks, coal mining companies etc. It had the help of James de Rothschild of Paris, the most influential
investment banker. In 1835 a rival group obtained a charter for another joint-stock bank, the Bank de
Belgique, which in less than 4 years established 24 industrial and financial enterprises. More than 9/10 of its
capital was French.
By 1840 Belgium was the most industrialized country in the Continent and in per capita term very close to GB.
Like other early industrializers, its rate of growth slightly decreased, although it remained the most highly
industrialized nation in the Continent in per capita output, second only to Britain. Throughout the century
Belgian industry depended heavily on the international economy; ultimately 50% of GNP derived from exports
(especially France). Indeed, if Belgium had been incorporated with France we would have lost important
statistics on regional economy.
France
Although the pattern of industrialization in France was different from that of GB and of other early
industrializers, the outcome was no less efficient. In seeking a solutions we have to look at the determinants of
growth:
1. Low demographic growth when all relevant measure of GDP are reduced on a per capita basis,
France results to do very well indeed.
2. France did not rely on abundance of resources although not deprived totally of coal, was much
less well endowed and the character of its deposits rendered their exploitation more expensive. This
implies consequences for coal-related industries such as iron and steel.
3. In technology France was no laggard French scientists, inventors took the lead in many industries
(hydropower, steel, aluminum, automobiles). The Revolution and Napoleonic Regime provided the
appropriate institutional context for most continental Europe.
The modern economic growth started in the 18th century: for a century the rates of growth were similar to that
of Britain although France started and ended with a lower per capita output. A reason affecting the 2
economic performances is the fact that from 1790 to 1815 France was involved in the so-called “first modern
war”, involving mass conscription of manpower. During the war the demand expanded, but along established
lines with little technological advance.
After a sever post-war depression, the French economy resumed its growth at even higher rate than the 18th
century. For the period 1871-1914 the GNP grew at an annual average of 1.6 (vs 2.1% of BG and 2.8% of
Germany). These figures can be misleading for three reasons: 1) when they are reduced on a per capita basis,
we have 1,4% for France, 1,7% for Germany and only 1,2% for GB. The slow demographic growth of France
accounts in large measure for the slow growth of the economy as a whole. 2) Even per capita rates can be
misleading because Germany began with much lower per capita income and thus smaller statistical base 3) Due
to the outcome of the Franco-Prussian war, Alsace and Lorraine became part of the German Empire (very
dynamic provinces)
Industrial production grew even more rapidly than total product (2/2.8%). The variations depend not only on
different methods but also on the industries included in the estimation. In the first half of the century
handicrafts, artisans and domestic industry accounted for ¾ of the “industrial production”. The output of these
activities grew more slowly than that of modern factories. Thus their exclusion from the indexes shows
apparently a greater growth rate. Between 1820-1848 the economy grew at moderate/rapid rate, punctuated
by minor fluctuations: the iron industry adopted the puddling process and began the transition to coke
smelting. A number of new industries originated or were quickly domesticated in France such as gas lighting,
matches, photography and galvanization. Between 1815-1847 growth rate was 4.5% (since prices were
falling it was even greater). Moreover France had a sizeable export surplus in commodity trade (it obtained
resources for substantial foreign investments).
The political and economic crisis of 1848-51 inserted a hiatus in the rhythm of development, but with the coup
d’etat of 1851 and the proclamation of the Second Empire it resumed its former course. The economic reforms
of 1860-67 (free trade treaties and liberalized incorporation laws) provided fresh stimuli. It suffered for the
1870-71 war and the depression of 1873 (but less than other industrialized countries). There’s another boom
in 1881, when the railway network grew from 3000km to more than 27.000. This provided a direct and indirect
stimulus for the rest of the economy: the iron industry completed the transition to coke smelting, adopted the
Siemens-Martin process for cheap steel, trade increased by more than 5% annually. The depression which
began in 1882 lasted longer, for various reasons: 1) disastrous diseases affecting the wine and silk industries 2)
large losses on foreign investments from defaulting governments and bankrupt railways 3) world-wide return
to protectionism and new french tariff in particular + bitter commercial war with Italy. With the advent of new
industries as electricity, aluminum, nickel, automobiles and the extension of the Lorraine ore fields prosperity
returned at last, in the pre-war period, in the so-called “Belle Epoque”, where French people enjoyed the
highest European standard of living.
Some key features of French pattern of growth, mainly related to low rate of demographic growth and
relative scarcity of coal:
Low rate of urbanization in part due to low rate of demographic growth, but also to the large
proportion of labor force employed in agriculture (about 40% in 1913). This can be the reason for
France “retardation”, but we can also note that France was the first industrial nation to be self-sufficient
in foodstuffs, and indeed had a surplus for export.
Scale and structure of the enterprise France was famous for the small scale of its firms. Those
employing fewer than 10 workers were in the traditional artisanal sectors, such as food processing,
clothing and woodworking, while those with more than 100 workers were mainly in modern industries
– chemicals, glass, paper, rubber as well as mining, metallurgy. Other characteristics of small
enterprises were: 1) high value added (luxury article) 2) geographical dispersion. Rather than
having a few conurbation of heavy industries (=Germany, GB), France had widely disperse and diverse
industries. This depended on the power sources available.
Sources of industrial power France was the least endowed with coal among the early
industrializers. At the beginning of the 20th century production per capita was only 1/7 of that of GB,
although it was exploiting reserves at higher rate. Moreover, mines were located distant from markets
and were difficult to access before the coming of the railway. For the whole century France depended
on imports for about one third of its coal consumption. To offset the scarcity and high cost of coal
France relied a lot on water power. It imposed constraint on location (generally remote from the
centers of population), the number of users was limited and the size of installations was limited too.
Thus, water power was the key determinant of the patter of France’s growth: small firms size, dispersed
industries and low urbanization.
Germany
Germany was the last of the early industrializers. Poor and backward in the first half of the 19th century, it was
predominantly rural and agrarian. Poor transportation and communication held back economic development,
and the numerous political divisions with separate monetary systems, commercial policies further retarded
progress. In contrast, on the eve of IWW, it had the largest industries for the production of steel and iron,
electrical power and machinery, high degree of urbanization and dense railway network. How did this
remarkable transformation come about? Three distinct periods: 1) from beginning of the century to
Zollverein (1833) with gradual awakening to European economic changes + formation of institutional
conditions allowing them 2) conscious imitation and borrowing the actual material foundation –
transportation and finance took shape (until 1870) 3) industrial supremacy
In all the 3 period foreign influences were very important: legal and intellectual from the French Revolution
and Napoleonic Regime + inflow of capital, technology and enterprise (in the second period). The French
influence was strong in the left bank of the Rhine and Prussia: an edict of 1807 abolished serfdom,
permitted the nobility to engage in “burgeois occupations (commerce) without derogation to their status”
and abolished the distinction between noble and non-noble property, effectively creating “free trade” +
removed the guilds and ameliorated the status of the Jews.
Formation of the Zollverein (toll or tariff union): Prussia led the foundations of it by enacting a common
tariff for the whole state, in the interest of administrative efficiency and high fiscal yield. Several small
states joined (except from Austria), resulting in the creation of the Zollverein itself. Measures: 1)
abolishment of internal toll and custom barriers (“common market”) 2) creation of a common external
tariff, following a liberal (low-tariff) commercial policy), mainly to exclude protectionist Austria.
Railways Zollverein made a unified Germany possible, the railways made it a reality. The rivalry among
German states hastened the process (as it had done with universities) and the network expanded more
rapidly than France (who had a unified government but was divided over the question of state vs private
enterprises). The agreements on routes, rates and technical matters resulted in greater states cooperation.
Moreover, the progress in coal and iron industry owes much to the extension of railways, because of both
direct demand of railways for their output and the lower cost of transportation they provided.
Coal the key to rapid growth of this industry was the Ruhr coalfield. Just before WWI it produced 2/3 of
German coal. Prior to 1850 the region was less important than Silesia, Saar and Saxony, but when in the late
1830 the “hidden” (deep) seams north of the Ruhr valley were discovered, the coal production rose very
rapidly. However, their exploitation required greater capital, more sophisticated techniques and greater
freedom of enterprise (all supplied by foreign firms).
Iron in the 1840 this industry had a primitive aspect. The first pudding furnace began production in 1824
(financed by foreign capital). By 1855 there were 25 furnaces in Ruhr and same in Silesia: they produced 50%
of German’s pig iron, even if charcoal furnaces still outnumbered them of 5:1
Steel Production of Bessemer steel began in 1863 and the Siemens-Martin process was adopted soon
afterward. During 1870-1913 the whole steel production increased by more than 6%: in 1895 Germany
production surpassed that of GB, and by 1914 produced twice of GB output. The industry was large not only
on total output but also in its individual units (average firm production more than 2x GB). German firms
quickly adopted the strategy of vertical integration, acquiring coal and ore mines, coking plants etc.
The year 1870-71, so dramatic for France, was less dramatic for Germany: economic unification had already
been achieved and the successful outcome of the war (5 billion francs indemnity) added euphoria to the
economic boom already in process. In 1871 alone, 207 new joint-stock companies came into existence. German
investors began to buy back foreign holdings of German firms and to invest also abroad. After a small
depression for the financial crisis of 1873, the course of growth resumed more strongly than before (3%
annually). The most dynamic sectors were the ones producing capital goods or intermediate goods
(#consumer goods in France) such as coal, iron, steel, chemicals and electricity. This explain the different
patterns of growth.
Chemical industry stimulated by the new literature on agricultural chemistry, a German invention,
farmers also demanded artificial fertilizers. Unburdened by obsolete plants and equipment, entrepreneurs
could use the latest techniques. This is exemplified by the advent of organic chemicals. The first synthetic
dye was invented by the English Perkin who had studied under Hoffman, a German chemist. Within a few
years the industry, drawing on the university resources, established its dominance in Europe. This industry
was also the first one to establish its own research facilities and personnel.
Electrical industry on the size of the demand, the rapid urbanization occurring alongside with the
growth of industry gave it an extra fillip (no struggles against gas light industry as in GB). Illumination and
urban transport were the first use of electricity but entrepreneurs soon developed other uses (ex: electric
motors competed with steam engines by the beginning of the 20th century)
Large size of firms : not simply explained by technical economies of scale (required to cover fixed costs in
deep mining for example). Sometimes there were also pecuniary economies of scale (arrangements that
provided extra profits to entrepreneurs by reducing the real cost to societies). The close connection btw
banking system and manufacturing firms is frequently held responsible (relationship banks).
Prevalence of cartels: it’s an agreement among nominally independent firms to reduce output, to fix prices,
divide markets and engage in anticompetitive practices. Such contracts were illegal in GB and US. The rapid
growth of Germany, against all economic theory, is explained by the combination of cartel and protectionist
tariffs after Bismarck’s conversion to protectionism in 1879. Cartels could maintain artificially high prices
in domestic markets (restriction on domestic sales, market-sharing), while engaging in virtually unlimited
exports to foreign markets, even at prices below the AC if the markup on domestic sales could offset the
nominal losses on exports. For ex: state owned railways charged a lower rate for shipments to country
borders than for intra-country shipment.
Patterns of Development: Latecomers and No-Shows
While the early industrialization was associated with coal (GB, Belgium and Germany), the latecomers had little
or no coal within their boundaries. Production in Spain, Austria and Hungary barely sufficed to satisfy the
meager domestic demand, Russia had huge deposits but these had scarcely begun to be developed before 1914.
Per capita consumption in even the most successful latecomers was 1/5 of that of GB
Given the limited consumption of all the late industrializers, the consumption of the successful ones rose
more than that of the others. Since the principal use of coal was as fuel for locomotive/steamships and it
had to be imported, it appears that demand was the dominant force in promoting their greater relative
consumption i.e. their greater consumption was a result, not a cause, of successful industrialization.
Switzerland
It was the earliest of latecomers. Although it had acquired in the first half of the 19th century some important
assets that played a role in its rapid industrialization after 1850 (e.g. adult literacy), its economic structure was
largely preindustrial: in 1850 more than 57% of labor force was engaged in agriculture, less than 4% worked in
factories. The majority of industrial workers labored at home or in small workshops. The country lacked a
railway network, institutional infrastructure (custom union only in 1850, but no central government), an
effective monetary union, centralized postal system or uniform standard of measures. Small in territory and
resources, it was poor in natural resources other than water power and timber. Despite these handicaps it
achieved the highest standard of living in Europe by the 20th century.
Population: the average growth rate was slightly less than GB, Germany and Belgium, but higher than
France. The population density was below, but this is explained by the nature of the terrain. The country
depended on international markets, since it imported raw materials and foodstuff as well.
Swiss success resulted from a unique combination of advanced technology and labor-intensive
industries: this combo produced high-quality, high-priced, high-value-added products, such as traditional
Swiss clocks, fancy textiles, exquisite cheese and chocolate. These industries were primarily skilled labor
intensive (high level of literacy + elaborate system of apprenticeship). This provided a skilled, adaptable
labor force willing to work for relatively low wages.
Textile industry There is an important textile industry but mainly based on handicraft processes and part-
time labor. After having been wiped out by competition with GB in the last decade of the 18th century, it revived
and prospered. It used a combo of technologies: mechanized spinning (with waterpower # steam), cheap labor
of women and children, but handloom weavers they concentrated on high-quality fabrics. The silk
industry, although more traditional, contributed more to economic development, but overall textiles dominated
Swiss exports throughout the century.
Energy In view of Switzerland’s lack of coal and iron deposits, it relied on imported raw materials while
developing an important industry for the transformation of metals. It began in the 1820s with the manufacture
of machinery for the cotton spinning industries and expanded including turbines, pumps, wheels (using water
power). When the age of electricity came, it specialized in hydroelectricity.
Dairy industry renowned for its cheese, converted its production from handicraft to factory process,
thereby expanding output and exports. It developed the production of condensed milk (on an American patent),
chocolate and baby foods.
Chemicals the country had no heavy inorganic chemical industry due to lack of natural resources. After the
discovery of artificial dyestuffs, 4 small firms became suppliers but soon discovered they couldn’t compete with
Germany. So they began to specialize in exotic, high-priced items in which they soon became monopolists.
They also developed pharmaceutical specialties through research. The industry, employing less than 10.000
workers, accounted for 5% of exports.
Railways no other country was so transformed by railways, but paradoxically in no country they were so
unprofitable. Investors were reluctant to invest in them (preferred US). By 1890s, as a result of high
construction and low traffic density, much railways were on the verge of bankruptcy until when in 1898 the
government purchased them at a fraction of their actual cost. Shortly afterward it undertook their
electrification.
Decline of the importance of agriculture, growth of services, dependence on international demand
(especially tourism and financial services).
Netherlands and Scandinavia
In terms of economic structure, Netherlands have more in common with Denmark than either do with Norway
and Sweden. The pairing of Netherlands with Belgium reveals that the latter was an early industrializer while
the former not, Belgium had coal, Netherlands did not. On the other hand the comparison with other
latecomers reveals more about the differences in resources and the process of late industrialization. All
four countries after lagging in the first half of the century, spurted rapidly in the second half (in terms of annual
rate only Netherlands was below 1% while in terms of per capita income it had higher level than France and
Germany). What are the sources of success?
All of them (=Switzerland) had small populations + moderate growth rates (but all more than
doubled population by 1900)
They were well endowed in human capital: Scandinavian countries had the highest rates of literacy
in Europe and Netherlands was well above the average
They all lacked coal (=Switzerland). That’s why they are not among the early industrializers and did
not develop an appreciable heavy industrial sector. Sweden was the best endowed with iron ore
deposits, virgin timber and water power (this last one very important factor in Norway too – for both
especially crucial with the harnessing of hydroelectricity in 1890).
Location is important for all four: #Switzerland they had access to the sea. Implication for a
significant international natural resource, fish, as well as for cheap transport, merchant marine and
shipbuilding industries (each took advantage of this in its own way). The Dutch had difficulty in
developing good harbors for steamship but eventually did so at Rotterdam and Amsterdam, with good
results for the processing of overseas foodstuff and raw materials. Denmark had a venerable
commercial history: in 1857 it abolished the Sound Toll dues, shifting towards free trade. Norway
became a major supplier of fish and timber. Sweden, although slow in developing a mercantile marine,
benefited from the removal of restrictions and the reduction of transport charges for its bulk exports of
timber.
Their political institutions had no barriers to industrialization or economic growth. Despite
different changes in political configuration, the century passed peacefully, with a progressive
democratization taking place in all countries. All the governments gave some aid to the railways, and in
Sweden (=Belgium) the State built the main lines. As small countries dependent of international
markets, they followed a liberal trade policy, except from Sweden which developed a protectionist
movement. In Denmark and Sweden, whose agrarian structure resemble that of Old Regime, some
reforms took place, abolishing serfdom and creating a new class of independent peasant proprietors.
The key factor was the ability to adapt to the international division of labor determined by the early
industrializers and to stake out areas of specialization in international markets (especially for exports):
this meant dependence on foreign markets (frequent fluctuation but high returns to the factors fortunate
enough to be placed in time of prosperity).
Although these countries entered the world market in a big way in the middle of the 19th century, with
exports of raw materials and lightly refined consumer goods, they had all developed industries by the
beginning of the 20th century “upstream industrialization”: a country that once exported raw materials
begins to process them and exports them in the form of semi-manufactures and finished goods. Some
example are Sweden and Norway’s timber trade (at first as logs, then converted into lumber) or iron
industry (Sweden charcoal-smelted iron could not compete in price with coke-smelted iron or Bessemer
steel, but in quality yes).
All 4 countries experienced satisfactory rates of growth until the 1890s, which dramatically accelerated in
the 2 decades preceding WWI. Which are the reasons? 1)period of general prosperity, with rising prices
and buoyant demand. 2) large scale imports of capital (#Netherland was an exporter). 3) rapid growth
of electrical industry: Norway and Sweden had a vast hydroelectric potential, Denmark and Netherlands
who could import coal relatively cheaply from Britain, also benefited from steam-generated electricity.
They all developed industries for the manufacture of electrical machinery and products (e.g. light bulbs).
Electricity allowed them to develop metal-fabricating and machinery industries without coal.
Italy
Before 1860, Metternich phrase for Italy “a geographic expression” applied to the economy as well as politics
(an Italian economy didn’t exist). Divided and dominated by foreign powers, Italy had long lost its leadership in
economic affairs. The Congress on Vienna re-imposed the mosaic of nominally independent principalities, but
most (Papal States and Kingdom of 2 Sicilies) were under the influence of the Hasburgs. Lombardy and Venetia
(2 of the most progressive regions) were annexed by Austria and separated by its high tariff barriers. The only
independent State, the Kingdom of Sardinia, was separated in 4 regions with different resources, climates,
languages and institutions. 1)Sardinia languished in the backwaters of feudalism 2) Savoy culturally and
economically belonged to France 3) Genoa was the commercial center 4) Piedmont was surrounded by
mountains who set it apart from Lombardy.
After attempts of revolution and unification (in 1820,’30,’48), Camillo Benso di Cavour, a progressive
landowner and agriculturist, became in 1850 minister of marine, commerce and agriculture and in 1852 prime
minister + minister of finance the following year. To achieve “financial order and economic progress”, he
advocated foreign economic assistance (foreign capital investment). Immediately upon taking office he
negotiated treaties with the most important commercial and industrial nations in Europe (especially France).
Exports increased, France built railways, established banks, joint-stock companies. After the successful
unification of Italy in 1861, the country had one of the highest population concentration in Europe.
Unification alleviated the fragmentation of market but without communication economic development was
illusory. The extension of Piedmont legislation and administrative system could not immediately alter
backwardness and illiteracy. After Cavour’s death, Italy remained dependent on French capital, but actions of
the Government alienated foreign investors (10 years tariff war with France). In 1890, after its end and new
injection of capital from Germany Italy experienced a small industrial growth.
Imperial Russia
The Russian empire at the beginning of the 20th century is regarded as one of the great powers: in GDP it
ranked 5th in the world, it had large textile and heavy industries (cotton, linen and pig iron, steel, coal). Yet
these large amounts are misleading if we look at per capita production and consumption: Russia was
predominantly an agrarian nation with more than 2/3 of labor force engaged in agriculture. Agriculture had
low productivity due to primitive technology and legalized serfdom (abolished in 1861).
Early traces of industrialization starts with Peter the Great but especially from 1830s onward it becomes more
visible: industrial workers grow from less than 100.000 to half a million on the eve of Emancipation. Most of
them were nominal serfs who made cash payment to their lords from their money wages instead of the
customary labor services. Paradoxically there were serf entrepreneurs.
The Crimean War (1853-56) revealed Russia’s backwardness (industry & agriculture), thus leading to some
reforms (emancipation of serfs in 1861, program of railway construction, reorganization of banking system)
“great spurt”: industrial output increased at an average rate of more than 8%, higher than the best rates
achieved in Western countries. Much of it goes to the construction of the state-owned Trans-Siberian (begun in
1891)+ expansion of mining and metallurgical industries (with foreign capital). The Donbas had large deposits
of coal but no connection with populated regions: French entrepreneurs linked it with an area very rich in iron
deposits, also constructing blast furnaces in both sites. Production of both coal and pig iron soared.
The government encouraged industrialization by several means: 1) borrowed abroad to finance railways 2)
it placed order for rails and locomotives with companies located in Russia 3) place high tariffs on
imports of iron and steel products, but at the same time facilitated the import of equipment for their
manufacture. The boom in 1890s was followed by a slump in the first decades of the 20th century. After the
disastrous Russo-Japanese war of 1904 and revolution of 1905, the Stolypin agrarian reform followed,
increasing productivity.
Japan
The later and most surprising entry in the list of industrialized nations was Japan (the only non-European). In
the first half of the century maintained its policy of exclusion of foreign influence: the Tokugawa government
had forbidden foreign trade (just 1 Dutch ship allowed to be sent once a year) + had forbidden Japanese people
from travelling abroad. Society was structured in rigid castes & level of technology similar to that of 17th
century’s Europe. Despite this, Japan had active markets, credit system and high level of literacy
In 1853 a US navy commander, threatening to bombard Tokyo, forced Tokugawa to open commercial relations
with US soon other European nations were granted similar privileges. These “unequal treaties” prevented
Japan from raising more than 5% tariffs ad valorum + foreigners had rights of extraterritoriality (no influence
of by Japan laws). The weakness of Tokugawa led to an anti-foreign movement to restore the emperor: the
accession of Mutsuhito marked the birth of modern Japan (“Meiji Restoration”: enlightened government).
he didn’t expel foreigners but kept them at polite distance. He abolished the old feudal system and replaced it
by a highly centralized bureaucratic administration (as French) + army (as Prussia) + navy( as GB). Intelligent
young men went abroad to study western methods in politics, government and foreign experts were brought to
train their Japanese counterparts.
Financial problems had been the principal causes of dissatisfaction. In 1873 Japan enacted a land tax, assessed
on productivity regardless of the amount of actual produce: 1)it assured the government a steady revenue
2) put the land at its best use, to the most efficient individuals. He also created a new banking system on the
model of the National banking System of US: banks could be established using government bonds as collateral
for the issue of banknotes (153 banks were established). The suppression of a rebellion by western clan
resulted in rampant inflation: a new finance minister decided to deflate currency in 1881, to create a new
central bank which had the monopoly of note issue + acted as fiscal agent of the treasury.
To introduce the full range of western industries it built and operated shipyards, arsenals, machine shops +
imported western technicians to train the local labor force. Where did they find the resources to do so? 1) Japan
had few natural resources (mountainous) so the agrarian sector had to bear the burden of providing
export revenues to finance imports. 2) after opening the trade, the cotton industry was wiped out by the
machine-produced goods by the West while the silk industry rose (exports especially). Tea exports declined
with the growth of domestic population and income (high demand), same for rice 3) the government
sponsored private enterprise (“develop industry and promote enterprise”). When modern establishment
operated satisfactorily, they sold them to private companies. 4)cotton industry was simple and employed
cheap labor (largest markets were China and Korea). 5) Iron, steel, engineering and chemicals were slower to
develop but underwent a increase in demand during the WWI which create a boon in the industry.
Overall the transition of Japan from backward country to major industrial nation was a remarkable feat and
had important political consequences: 1) in 1894-95 Japan defeated China acquiring Taiwan. 2) Ten years
late defeated Russia on both land and sea.
The Making of Europe
The geo-economic continuity of Europe
The formation of Europe was a long historical process, involving political, cultural and economic forces. The
most striking feature is the persistence and continuity during the last two millennia integrative impact of
trade as well as its border maintaining effect in shaping and maintaining Europe. Trade was the cohesive
force when political and military conflicts threatened to tear Europe apart. We can trace it back to the
Carolingian and Roman Empire. About 80% of the population of the Roman Empire (100 AD) lives within the
border of the present Europe. The countries which were not touched were Ireland, Russia (indeed always
wanting to be independent) and Scandinavia (some countries are still making up their mind about EU).
We delineate a nation of a union of nations by borders because they represent the limit of political authority
and the capacity of the state to tax and spend on roads and public goods, such as defense and law and order
institutions. Nations form because they offer economies of scale in providing these public goods. Since the
breakdown of the Carolingian Empire, national borders have been repeatedly re-drawn: the paradox is that
despite this, Europe remained as a unit of cultural and institutional homogeneity because of strong cohesive
forces, of which trade is the most important.
Europe trades, therefore it is!
Throughout history the intensity of trade has been stimulated by the proximity and similarity of nations.
Close nations trade more with each other than with far away economies.
Proximity: When trade expands, it does so more with those nations already part of the trading network
than with those at the fringe. it was truer in the past when transportation was expensive (especially for
commodities). A large economy will typically stimulate trade with the surrounding economies very much
like a force of gravity. Trade transmits goods, common language, commercial law, preference and
technology. Intense economies make initial differences similar (ex: similar income, which in turn stimulate
trade).
Similarity: trade is not stimulated by proximity alone (we would not see the evolution of an entity like EU),
because there always nations at the margin which are close to some neighbors. Nations at the margin would
therefore tend to extend the limit successfully. Why did that not happen? The reason was “trade
resistance”, due to lack of similarities of nations at the geographical margin as well as the distance from
the trade generating core economies in Europe.
The Romans tended to create homogeneity but there were limits: costs of frontier areas and falling revenues
from population at a lower level of income. The forces of gravity were too weak to generate sufficient trade.
Moreover, the neighboring economies differed in income and technology, culture and preferences. When
these factors differ among trading partners, volume will be low irrespective of proximity (e.g. a lack of
commonly accepted currency makes transactions difficult, rich nations find exports prospect of poor nations
too small).
If periphery is initially poor it may remain poor because it’s left untouched by knowledge, commodities and
institutions that trade is bringing: we have “border effects” high transaction costs imposed on trade which
is not present in trade within the region which has a common legal and monetary system and language. They
reduce trade and maintain the lack of similarity between neighboring economies in the border areas.
Religious and cultural divide: An example is the Arab conquest of northern Africa and Iberian peninsula,
which created a cultural and religious barrier to trade in the Mediterranean: the core of Europe moved
away from the Mediterranean to the Atlantic. Henry Pirenne focused on what he called “border effects”,
meaning negative effects of a religious and cultural divide. In the context of long distance trade exporters
and importers need to trust each other (especially regarding procedures for settling disputes).
Language divide: the diffusion of ideas and goods and the exercise of authority are all helped by a common
language. Compared to the Roman Empire the 10th century Europe was less homogeneous (different
German dialects), but with the advance of the Christian faith, Latin began to be used in all Europe.
Similarity, proximity and the absence of strong border effects stimulate trade. Is it true? ¾ of the trade
of EU nations is within EU + Norway and Switzerland. We also note that similarity matters a lot (e.g. Denmark
trades more with small economies like itself – Sweden, than with large economies like UK), but proximity might
explain part of the difference: Denmark trade with Germany is 3 times larger than with Italy & Spain combined.
From geo-economics to geo-politics
EU in its formative years was dominated by purely economic concerns. Diverging national interests were
however still high on the agenda and split Europe into 2 trading organizations: 1) EEC (European Economic
Community): formed by the Treaty of Rome in 1958 with France, Germany, Italy and Benelux 2) EFTA
(European Free Trade Association) with UK and the rest of Western Europe these latter countries traded
more with EEC than within themselves so EEC was broadened including UK in 1970s and other countries. The
trade-creating effects of the initial tariff reductions, the creation of a single market have been impressive.
Knowledge, technology transfer and convergence
The pre-industrial era witnessed a number of ground-breaking innovations and improvements, but they were
typically generated by learning by doing (they did not know why things worked). It’s wrong to believe that the
British IR (1770-1830) was based on scientific understanding: decisive steps were taken towards a more
profound understanding of nature but these accomplishments had little impact on production technologies.
The steam engine, developed on the studies of Galilei and Torricelli, is an exception to the rule. The massive
breakthrough of technologies did not arrive until the second half of the 19th century.
The theory of the “lethargy” of preindustrial era contrasted with a rapid surge in growth was revised by Crafts
and Harley: 1) they argued that it was more of a transition than a revolution. 2) it was a pan-European
phenomenon (they reduced the importance of the role of GB). Furthermore it was anticipated by an
“Industrious Revolution” i.e. a fundamental change in consumer behavior: higher degree of market
involvement by all household members as producers of marketable goods or expanded supply of labor.
This demand-side vision serves as correction to the supply-side bias (i.e. progress made goods broadly
accessible).
The concept of Revolution implies a sudden change: most contemporaries were unaware of it. They were
convinced that sustained growth was impossible due to resource constraint. In fact the concept of IR was
coined only in 1850.
Most technologies were sector specific rather than general purpose i.e. applicable to a large
number of industrial activities (another possible exception again the steam engine). At first it was only
used to pump water from coal mines. The introduction of fossil resources as a source of energy and
power has revolutionary implications because they substituted animal and human muscle power.
Before that could happen, energy saving was necessary (continuous reduction in coal consumption).
Not until the middle of the 19th century did steam engines have an impact on transport (before only
water power and wind).
The IR was limited to certain sectors, specifically the textile industry (precisely spinning and
weaving cotton cloth).
With hindsight, some pre-industrial innovations might seem simple (as introducing the food treadle):
technological change that occurred was the result of trial and error rather than scientific
discovery. However, the fact that craftsmen were not skilled scientists doesn’t mean that they didn’t
have a scientific mentality.
New estimates show that per capita growth is reduced to about 1/3 of the previous estimates (they are only
slightly higher than the pre-industrial ones). Main reasons are: 1) previous estimates gave too much weight
to new and fast-growing industries in aggregate industrial output, compared to old industries 2) size of the
industrial sector was exaggerated. Not knowing the exact size of the modern industries , authors made
different assumptions, usually overstating the actually weights of the new sectors. 3) using base year weights
underestimate growth relative to an estimate based on end year weights. Today authors use “Divisia
index”, an average of indices. Using sectoral value-added from 1770 , overall industrial growth would be 1.6%
up to 1801, but using 1801 value-added shares, growth almost doubles (attributing too large share to a modern
sector overstates growth). can we then speak of a revolution? No. Modern economic growth (1,5/2%)
prevailed in GB only around the middle of the 18th century.
However, Mokyr argue that the slow acceleration of growth nonetheless concealed fundamental changes in the
intellectual climate (“industrial enlightenment”) emerging scientific culture of rational enquiry into the
laws of nature.
1) It was a Pan-European movement , rather than an isolated British history. The steam engine was
invented in GB but relied on past experiment conducted all over Europe. The contributors to the
understanding of electricity reveal a diversity of national backgrounds: Volta, Davy, Faraday, Ampère,
Oersted. The cost of accessing the new knowledge fell when scientific societies were formed both as forum
for researchers to present new results and later to popularize and diffuse useful knowledge. Catalogues of
useful inventions were edited, industrial exhibitions were organized, and travel writers of the time
reported on production methods and products used in other countries (19th century is an age of
improvement).
2) It was a uniquely European phenomenon (+US), although some areas made no significant contributions
(East Europe, Iberian Peninsula). Technological stagnation characterized the rest of the world. Europe’s
unique institutional conditions for gainful accumulation of knowledge started its ascent to higher
permanent growth if it hadn’t occurred in GB it would have certainly occurred somewhere else in Europe.
The scientific societies were concerned with open access to knowledge, therefore offered prizes and
tried to discourage innovators from seeking patents. 1) From a social point of view it would be
advantageous for all useful knowledge to be freely available. The tragedy of commons does not apply
here. 2) However, the rate of invention would be lower in the absence of the incentive offered by patent
rights. It’s been debated how decisive patents were in early industrialization. Gratification of fame was
often sufficient, but many innovators were fighting for the proceeds of patent rights even at the end of
the 18th century. In the 19th century innovators rushed to patent offices, because many ground-breaking
innovation were developed simultaneously (Edison vs Bell for the “speaking telephone”).
The Iberian Peninsula is left out from this process of patent application while Scandinavian countries do
well: not only it indicates the vitality of the scientific community but also how god a society is at
absorbing the new knowledge.
The new era of sustained and higher economic growth has 3 characteristics with a profound impact on per
capita growth: 1) science-based knowledge makes total factor productivity increase 2) the flow of inventions
stimulated investment and increase in capital per laborer, thus its productivity. 3) increasingly sophisticated
technology increased the demand for education and human capital investment (new professions: engineers,
accountants, teachers)
Science and entrepreneurship
Quite a few 19th century innovators had a poor formal training but this did not preclude a scientific mind in the
sense that they conducted endless trials and experiments and communicated results to critically minded
fellows. Many innovators were more skilled and original as entrepreneurs: 1) Alfred Nobel: successful
commercialization of dynamite (replace gunpowder), useful to build railways, tunnels and roads in a safer way.
2) Guglielmo Marconi: made wireless communication commercially successful and filed the first patent,
although its theoretical and experimental work were anticipated by several researchers who failed to see its
commercial potential.
Accidental discoveries attracted scientists searching for explanations: the preservation of food by
canning under heat was used but nobody understood why it worked, until Pasteur around 1860 studied
micro-organisms and microbes present in the air
The impact of new knowledge: brains replace muscles
The new technologies emerging in the late 18th and 19th century developed production processes for already
known commodities (paper and steel), but also opened services and production processes of entirely new
products (electricity).
In paper making the cellulose has to be separated from other elements that badly affect the quality: this was
previously done mechanically, then chemically.
Iron was made by heating iron ore with charcoal and blowing air over it (e.g. blast furnace). In this way it
takes up carbon which makes it brittle (pig or cast iron). Steel is decarburized iron (more heat and impact
resistant)
Electricity is a general purpose technology.
Which are the characteristics of technological change (old and new technologies)?
Saving resources and lessening natural constraints they are the defining characteristics of
technological progress. IR is often associated with worker protests (Luddities), against the displacement of
human labor by steam-powered spinning and weaving in the textile industry (spinning jenny, mule, power
loom). However the 19th century inventions were not systematically labor saving: GB was with a high wage
economy with cheap energy resources, that triggered off primarily labor-saving inventions.
o Textile: mainly labor saving (mechanical waving by Crompton, Highs + power loom by Cartwright +
Jacquard loom – to weave complicate patterns through pre-programmed machines and punch cards)
o Steel : mainly resource saving. 1) Bessemer converter (it blew cold air through molten pig iron to
reduce impurities and decarburize it, reducing the process to half an hour) 2) Siemens-Martin
open hearth process (the heat generated was not lost but used to warm a brick chamber through
which the fresh air for combustion was fed. Rare example of peaceful resolution of patent conflict).
o Electricity: saving resources and lessening constraints of nature. Once developed, the electric
motor was superior to steam as a prime mover because of high proportion of electricity it converted
to kinetic energy and its flexibility. It didn’t enter into industrial use until it loosened location
constraints imposed to earlier energy sources. A century earlier industrial location had been
determined by the availability of water for the mills. Steam engines needed a critical size and cheap
coal (#electric motors). Electricity was initially produced by kinetic energy from steam engines and
later by the more energy-saving steam turbine. Initially electricity was generated locally for local
use: production and consumption were more convenient at low voltages, while high voltages
reduced losses in transmission. The invention of the transformer stimulated the building of power
plants exploiting scale economies of steam turbines + geographical distance became less of a
constraint: the link between location of production and consumption was broken giving a second
life to water and wind power.
Quality improvement (and quality differentiation) Romantic critics of the Industrial Age (Arts and
Crafts Movement in GB) deplore the vulgarity and cheapness of the machine-made commodities. However
industrial change saw both quality improvements and quality differentiation (it doesn’t mean fall in quality:
but cheap low-quality products make perfect sense sometimes, e.g. mass circulation of newspaper). The
problem of quality improvement becomes significant when we measure the welfare gains from
technological change: real wage is nominal wage divided by a cost-of-living index (which doesn’t account
change in quality, underestimating the true gains of technological change). Quality improvements are
difficult to assess: William Nordhaus used lumen hours as a measure of the quality of light and discovered
that the true price fell in the order of between 3-4% a year, relative to conventional measures (i.e. real
wages at the time were then higher, even if light expenses occupied only a small fraction). Electrical bulbs
replaced a variety of illumination devices such as candles, gas lamps, kerosene and oil. The first bulb built
on incandescent light (Edison) is attributed to Wilson Swan: the improvements were on the filament
(before carbonized natural fibers was used, then metallic filaments).
New products and production processes in the 19th century there was an unprecedented number of
innovations: electricity, electrical appliances (toaster patented in 1909), electrical light, combustion
engines and cars, wireless communication, telephone, integrated production of paper and new materials
(plastic) generated by advances in chemistry, reinforced concrete, high quality steel.
o Cast iron began to be used in building bridges but due to insufficient tensile strength it was
replaced by steel (skeleton in tall building e.g. Tour Eiffel and essential component of reinforced
concrete).
o The jet engine is an application of the principles behind internal combustion engine: its
development was dominated by German engineers, but the rationalization of production process
was initiated by Ford. A combustion engine was first used in motorcycles and coaches (1885-86).
o One new product was the industrial production of nitrates: Fritz Haber invented a process to
produce ammonia from nitrogen through a catalyst. It not only made for the production of artificial
fertilizer, but it’s a good case of a widening of the resource base.
Widening the resource base
o The increased demand for printing paper was hard to meet given the traditional sources of raw
materials for wet pulp: rags, hemp (canapa) and straw (paglia). Wood was abundant in supply but
not yet usable: in 1850 a mechanical method was invented, producing cheap but inferior-quality
paper, which restricted its use. In 1870 chemists and engineers from Germany, US and Sweden
invented the sulphite method (had its drawbacks because the acidity made paper brittle in the
long run). The sulphate process, producing the so-called “kraft paper” (i.e. strong in German and
Swedish) produced a strong, cheap paper but difficult to bleach.
o Although the Bessemer converter made mass production of cheap steel possible, it hit a resource
constraint: it couldn’t use phosphorous iron ores abundant of the continent: in 1870 the cousins
Gilchrist took out a patent for a new method. Moreover, incidentally, the phosphorous reclaimed in
the process as slag (scoria) could be used as a fertilizer in agriculture.
The lasting impact of 19th century discoveries and 20th century accomplishments
The most surprising element of late 19th century scientific discoveries is their lasting impact on the 20th
century (conceived in the 19th century and later become articles of mass consumption): telephone, gramophone,
cameras and movies, wireless communication, radio, chemical fertilizers, plastics, dynamite, viscose, bicycle. In
steelmaking open-hearth furnaces remained dominant (Siemens-Martin), until when a more sophisticated
version of the Bessemer converter was used, the “basic oxygen furnace” (pure oxygen was blown instead of
normal air).
By the beginning of the 20th century the center of gravity had moved to the US: they surpassed the leading
economies in Europe in terms of income per capita and share of GDP spent on educational research.
1) rationalization of production process (Fordism) based on the principle of division of labor in which
each worker did a limited number of tasks repeatedly. American manufacturers exploited the advantage of
a huge domestic market and could design mass production technologies: European industries didn’t have
the same potential because of smaller domestic markets and less homogeneous preferences (standardized
American mass production # European flexible and customized production technology). European
managers studied American industrial technologies in the interwar period, but they were not widely
transferred until after the WWII (scientific management was resisted by trade unions). An advanced
division of labor enables further steps in automation by the introduction of numerically controlled
machines. Originally it was done by punch cards, later with computers (physical power is replaced by brain
power). Mechanical calculators were first designed in the 17th century in Europe (Leibniz, Pascal), but
commercially successful ones were developed in 1870-80s. William Borroughs, based in US, made
estimates of the labor productivity impact of “simple adding machines” (i.e. computers): increased speed of
a factor of six, compared to the use of paper and pen. The cost reduction generated by the widespread use
of computers are difficult to assess because they perform functions that mechanical calculators couldn’t: we
can use as a measure of performance “computation per second”. In constant 2006 prices the cost reduction
is 7,13*1013. conventional price indexes have an upward bias in price changes estimates. Since real
output is measured by deflating nominal GDP with a GDP deflator (price index), the result will be that real
output is underestimated.
2) efforts devoted to innovation research and development
Technology transfer and catch-up
Knowledge has the particular characteristic of being a non-rival good (not exhausted when used): patents
protection increases access cost but only temporarily. The use of a non-rival good doesn’t hinder another from
using it A machinery is a rival good but not the technology embedded in it. Moreover, scientific knowledge in
particular is also described in terminology accessible to all in a particular field: that means that experiments
can be replicated, tested and improved (even if technologies were patented, they were in the public domain and
could be improved). By the end of 19th century most nations in Europe had people in R&D: we would expect
differences in technological sophistication to disappear over time, at least among nations having institutions
which favored the search for, absorption and application of technology minimum level of education, banking
system supporting innovative entrepreneurs, a modern economy.
Technology transfer should make it possible for less sophisticated economies to catch up because they can
benefit from the application of superior technologies invested in frontier technology economies “beta
convergence”: poor economies can expect to grow faster than the more advanced, once they get started. Less
rich nations have the “advantage of backwardness”. Three reasons: 1) technology transfer 2) structural
relocation of units from inefficient (old) sectors to efficient (new) sectors: agriculture is now a sector with
almost equal productivity as industry, but at the time it was only half of that of industrial sector. The most
advanced economies tend to have only small pockets of the old sectors, while relatively poor economies have
large: they will catch up by relocating labor and resources from traditional to modern sectors. Less efficient
sectors increase productivity because inefficient units are squeezed out. 3) growth theory: Robert Solow
predicted convergence of initially poor economies with low capital-to-labor ratio, because they will typically
save and invest more, enjoying higher growth rates. However, diminishing return on capital will set in and
backward economies will approach leading economies. The hypothesis of diminishing return on capital is now
less deterministic (it depends also on R&D spending).
Over the 40 years preceding the WWI most nations had GDP between 1-2%, but then it slowed down. After
1950 Europe witnessed the fastest growth (3-5%): half of the growth can be attributed to education, capital
and labor and half to productivity. We expect less developed economies to grow faster since they have more
scope for technology transfer, better prospect for capital investment (less capital per labor), thus higher rates
of return on capital. for 2 periods (pre WWI and post WWII) the negative relationship btw initial income and
subsequent growth is met, while in WWs and inter-wars there is a positive relation: these periods lacked the
preconditions for technology transfer i.e. openness to trade, capital and people. The period 1870-1914 was the
first era of free trade (although tariffs were not absent), mobility of people and capital + from 1950-1975 there
was a reduction in trade restriction: trade enhances productivity because it forces domestic businesses to
adjust. In contrast, the 2 wars closed the borders and the only channel for technology transfer were talented
scientists fleeing from Nazi dictatorship. An important lesson emerges: openness seems a particular advantage
for poor nations.
Rates of growth differ also among countries with a given initial income. UK had less to gain from technology
transfer, but was also unwilling to absorb useful technologies and develop new. Germany performed as
expected giving its initial income and was an over-performer thereafter: it was partly caused by self-inflicted
low income (consequence of WWI) and part was due to a reconstruction effect. Some of the poor nations did
well, some others didn’t manage to welcome technology transfer. Countries which broke away with Austria did
well (Hungary, and Czechoslovakia) while Austria did not. Greece, Spain, Portugal and Ireland under-performed
before the war. Ireland in terms of initial income was similar to Sweden and Denmark but the proximity to
slow-growing GB didn’t stimulate growth. Portugal was handicapped by proximity to the laggard Spain, while
Scandinavian economies had dynamic Germany in the proximity + open economies + good policy choices (e.g.
devaluation of currency). Ireland was tied to British currency despite its independence and its most talented
inhabitants were heading US or UK + poor policy choices in 1930 + low investment w/ respect to national
income + protectionism introduced during the Great Depression.
There were also regional differences. Catalonia and Northern Italy performed well. Given its initial income,
Russia did better than other Eastern Europe economies only in the period of forced industrialization in 1914-
50 with high investment growth.
Why was Germany a late industrial nation … and why did it grow faster than GB once started?
1. It’s because Germany didn’t have the institutions preconditions for sustained economic development until
the middle of 19th century e.g. an efficiently functioning market for goods and factors of production. Land
reforms introduced (Stein-Hardenberg reforms imposed in 1807-21 after the defeat of Prussian forces by
Napoleon) freed labor from the control of landlords, but also deprived common people from customary
rights on land increase in labor productivity in agriculture + changes in income in favor of the property-
owning classes, stimulating investments in industry.
2. The size of the market matters because of scale economies. Germany was unified only in 1870, but was
prepared by a process of economic unification through tariffs and currency reforms. 1) Prussian Customs
Union in 1818 2) Zollverein in 1833 3) common currency
Once it got started, it performed better than GB. GDP growth per head was higher than GB’s one and for
a period also of US. By 1973 Germany had closed the income gap with GB. Already in 1914 the chemical
and metallurgic sectors had higher labor productivity than corresponding UK sectors (GB kept its
lead in financial services and retailing). In 2 periods (1870-1913 + 1950-1973) Germany’s growth
almost doubled UK’s. UK was growing less rapidly than equally rich economies (US): we have to look at
differences in investments in people, research and capital.
Human and capital investment
In terms of literacy and enrolment rates, US stands out exceptionally: GB universities were not attentive
to teaching hard sciences. It also seems that Germany had superior system for training skilled labor.
GB had low investment ratio (i.e. net investment as a share of GDP), half the ratio of US. British investors
were inadequately informed about domestic investments and they were missing a number of promising
opportunities, which led them to prefer foreign investment (# what is normally referred to as “home bias”,
the fact of not being able to diversify between domestic and foreign assets). In Germany, on the other hand,
firms were serviced by specialist banks (universal banks), often targeting particular sectors and developing
sophisticated knowledge on investment opportunities and on the benefits of merging small firms into larger
units.
A substantial part of UK investment was in foreign assets. The total of domestic + foreign
investment was not much lower than France or Germany as share of GDP (the hypothesis that this is
due to high capital x laborer is not valid). After 1950 domestic investments converged on the EU
norm.
Not only differences in volume of investments but also in the sectorial direction. Much of GB
investments tended to remain in traditional sectors (low growth potential): they exported not in
high-tech industries such as cars and aircraft, but in textiles.
Research and Development (R&D)
We would expect a positive relationship: big American firms were the first to set up separate departments for
research to develop new products and production processes. In Germany in the early years after 1870 private
research spending was stimulated by the fact that cartels (steel, chemicals and electrical equipment) were not
prohibited as in GB. Cartel pricing enables firms to cover the outlay on research.
Industrial relations
In the past trade unions in GB were based on skills rather than industries. In any given industry workers were
represented by a large number of unions, each representing a specific skill. There’s no negative impact between
productivity and unions itself but there is with multiple unions: it can fight for its own interest at the expense of
others, especially in wage negotiations and negotiations over the introduction of new technology. While trade
unions in Germany and Scandinavia were willing to trade the introduction of new technologies, sometimes
labor-saving, for higher wages in the future, GB’s ones did not. A paradox is that British owned car industry was
wiped out by 1950, whereas Britain remained a major produced of Japanese cars in factories with different
industrial relations. A final contributory factor to the dismal growth record was the large nationalized steel and
coal sector, where total productivity was low.
Convergence in the long-run: three stories
When less rich economies introduce growth promoting institutions and exploit best practices borrowed from
the leading economies, we expect them to converge. This pattern has been discernible but the pace and timing
of this convergence varied: why some economies started the process in the late 19th century while other did not
begin until after 1950? Three trajectories in economic convergence, known as “sigma convergence” i.e.
convergence of (log) income per head in constant $1190 across nations from 1860-2000:
1. Argentina, Scandinavia and USA persistence of USA lead except in 1930s. There is a convergence but
only in the Golden Age. The income gap after WWII was exploited by Scandinavia. Like primarily food and
raw-material producing nations, Argentina was severely hit by Great Depression in 1930. A string of
populist politicians, wanting to please a public unwilling to pay taxes, created a foreign debt too large to
manage without repeated defaults.
2. Germany, Ireland, Czechoslovakia and Italy Germany is an early industrializer, Italy an hesitant
follower and Ireland a late boomer. A first phase of convergence starts for Italy around 1900, both with
Germany had spectacular growth in the first part of Golden Age, since they start from war-inflicted low
income level (reconstruction effects and potential for technology catch up). However these high growth
rates couldn’t be sustained. Many gains had already been exploited (return diminished). The lost
opportunities for Ireland of the Golden Aged deprived the population of the high standards of living
achieved in Italy and Germany in 2000. Its catch up didn’t started until the country opened to free trade.
Czechoslovakia followed the same pattern, due to socialist planning.
3. France, Spain and UK long-term convergence of France and Britain. France overtook Britain by the end
of the Golden Age: it was possible despite the destruction of physical capital, because of the human capital
and institutions that remained. Spain differs from Italy in that there is no trace of convergence until well
into the Golden Age. The Civil War of 1930 and the nationalist government ended the brief period of
openness of 1920 + inequality increased. Moreover, since Spain had half of its labor force in agriculture, the
labor-saving bias in agricultural development releases under-employed labor for industrial occupations
and triggers off the structural convergence effect.
Money, credit and Banking
What do banks do?
When banks started to take deposits and offer loans to the public i.e. to practice “fractional reserve banking”,
they clearly entered a new phase by increasing money supply and facilitating trade by providing foreign
exchange and clearing services between accounts. In the 19th century they expanded their role as
intermediaries between savers and borrowers: banks lower transaction costs for both savers and borrowers
For savers it’s time consuming and difficult to collect and assess information on a wide variety of
potential investment projects: 1) risk of putting all savings in 1 project 2) impossibility to monitor the
borrower i.e. information asymmetry. Banks thrive (fioriscono) from exploiting economies of scale and
gain from specialization in collecting and analyzing info about the borrower
Borrowers typically need long-term commitment for investments in fixed capital, while lenders
want their assets to be liquid: banks learn how to transform short-term liabilities (deposits) into
long-term assets (loans) by holding appropriate cash reserves. When the size of firms increased,
investors had difficulty in finding long term lenders outside the circle of family and friends, so banks
performed as intermediaries (doing a mix of supervision and penalties on borrowers who do not
perform adequately)
Why this system breaks down in bank runs? Bank accepts deposits and promise a positive return (interest) and
the right to reclaim the deposit at fixed nominal value, but also manage a portfolio of assets, whose future value
is not granted: if banks miscalculate this mix, a chain of events happen: borrowers cannot pay back their loans,
depositors run to rescue their deposits, banks have liquidity constraints and will fail in the absence of a “lender
of last resort” i.e. the Central Bank. We have two main types of crisis:
Liquidity crisis occasionally bank underestimate the volume of liquidity needed to meet customers’
need for cash (i.e. the amount of reserves). This kind of crisis can develop also in a solvent bank because
of the contagion of customers panicking and withdrawing their money at an unforeseen rate. These
crisis are contained referring to the CB, which lends freely to the banking system (“Bagehot rule”) until
the public has regained confidence. The introduction of deposit insurances has also contained the
impact of such crisis (even if the bank fails, deposits are safe)
Crisis of solvency These are more difficult to contain and have strong impact on income and growth.
They appear after a period of excessive risk-taking linked to low interest/rising asset prices, so called
“financial bubbles”. When the bubble bursts equity and/or house prices fall by 25-50%. These crisis
stem from the difficulty of revealing the true risk of the assets held by the banks. Excessive risk involves
non-diversification of assets (e.g. large fraction of assets in a specific industry which can be hit by a
shock). An initial decline in the value of assets is aggravated because financial institutions can be forced
to stage “fire-sales” to raise cash, further pushing down the value of the assets. A large portion of them
turns to be “toxic assets” i.e. assets nobody wants to buy. A solution is the nationalization of the bank
(they can then privatize it later when there will be higher confidence). This kind of operation has been
successfully performed by Sweden in 1990s (even if with a sharp decrease in output for 5 years).
The impact of banks on economic growth
The impact of banks on economic growth operates through 3 mechanisms: 1) impact on savings ratio 2)
effect of increased monetization of the economy 3) impact on the efficiency of the use through which
savings are channeled
There is evidence that the spread of banks outside the metropolitan areas increased the saving ratio (i.e.
savings as a share of national income). That’s because they increased the opportunity cost of hoarding
(accumulare soldi) e.g. savings are more attractive because transaction costs and risk of saving are lower. In the
absence of banks there could be no other viable alternative to savings apart from the consumption of durable
“store of value goods” such as gold and silver. But gold and silver in the public coffers is a lost opportunity: had
the equivalent money been deposited in banks , it could have been put at the disposal of investors. Furthermore
there is a strong link between domestic savings and domestic investment and hence economic growth.
Monetization has a positive impact on economy: for example in the Dutch economy, cash constraints were
serious impediments to investment. In England it was estimated that a 1% growth in monetization led to a 2%
increase in industrial output for 5 years.
Citizen were initially reluctant to trust banks. Bank failure were not infrequent. The saving banks developed all
over Europe in the early 19th century were meant to provide ordinary citizens with safe deposits, but given the
fragility of trust they had to pursue a very conservative assets strategy: they invested only in secure
government bonds (no loans to the public). In the later 19th century, the constraints on lending were relaxed
although the types of collateral accepted were restricted (only land and real estates). Savings banks were
originally designed for, and in fact attracted, low and middle-income earners, who otherwise might not have
saved at all. They also played an important role in providing finance for infrastructure investment. In the 19th
century we witness the rise of joint-stock banks, which relied less on depositors money (not constraint by
their preference for liquidity ) and more on investors’ money : riskier investments to reach higher yields. The
difference between these 2 types of banks decreased over time & some joint stock banks became pure
investment banks, servicing industrial firms and helping in mergers and acquisitions.
Banks specialize in gathering info about borrowers’ solvency and the viability and profitability of investment
projects: they therefore set up strict criteria to be fulfilled before the loan is granted. However there is
information asymmetry, so the bank must also continuously monitor the counterpart and be able to penalize it.
When an institution specialize on that, savings will be used more efficiently than if savers invest individually,
without mediation. There is evidence that “bank depth” (i.e. the volume of financial intermediation in the
economy) is positively linked to investment and productivity growth. The same results apply to stock market
depth.
Europe developed both systems which had different relative importance. In the early 19th century only GB had
a well developed banking system (country banks + strong center in London). It provided mostly short-term
credit to industry and commerce bill discounting and deposit banking. In the rest of Europe neither banks nor
stock markets were well developed: this backwardness prompted banks to establishing close links between
themselves and industry. France and Germany banks were better at picking the best firms and coping with
asymmetric info and agency problems than UK: the slow growth of the Victorian UK is partly due to the failure
of banks to direct savings towards the most profitable investment opportunities. Banks were unable or
unwilling to provide industry with the necessary finance, which slowed down economic progress. They
invested in lower-yielding assets and thereby made life hard for evolving, more risky technologies. Too much
proportion was invested in overseas assets. In the rest of Europe, on the contrary, banks developed close and
long-lasting relationships with industry and invested in new technologies.
Transaction banking discounting of bills, deposits and clearing + provision of short-term credit
(commercial banking)
Universal Banking commercial banking + investment banking and mortgages for houses. Some but not
all preferred to take a long-term stake (they typically followed a bank from start to maturity).
relationship banking (#transaction banking). This kind of system played a role in German rapid catch-up
(while the British transaction banking system slowed down growth).
This view has been revised in recent search, however. Relationship banking is supposed to diminish the
problem of asymmetric info, to create a relationship of trust, to save the cost of gathering info about
firms (info is not immediately lost as in transaction banks), to ease the cash constraint (no evidence of
this). British banks have been able to overcome the lack of long-term relationship with highly efficient routines
for scrutinizing borrowers. British banks relied more on deposits (they hold more liquid assets), but short-term
loans were routinely rolled over the to the next period. Moreover, too close relationships with an industry is
also risky in case of industrial downturns. Recently, after the 2008 crisis, new demands for separation between
commercial and investment banking were heard.
In conclusion the question whether relationship banking was better at promoting economic growth has no
conclusive answer. The question boils down to whether the asset portfolios had higher yields (some evidence
says that British assets were not optimal). Hence we cannot exclude that Victorian Britain relative failure was
in part due to the banking system.
Banks versus stock markets
Stock markets, which mainly traded government debts and shares in trading companies, until industry, bank
and transport securities were introduced, fulfill similar functions to banks but by other means. They enable
savers to diversify risk and provide an instrument (equity, shares or stocks) which is liquid for savers and a
long-term commitment for borrowers.
The information needed and the cost involved in obtaining info about firms have precluded the majority of the
public from investing directly in the stock market (in 1950 when almost all household had bank accounts, less
than 10% had stocks). Some people invested in “mutual funds”: collective investment funds in which investors
money is pooled and traded by professional investment managers. However, it’s less attractive to risk averse
because it cannot promise a positive return on shares nor guarantee a nominal value on original deposits.
These two institutions developed together and have to be considered complementary, but banks reached a
more sophisticated development before stocks did. That’s because markets deal with “marketable assets”
while banks with “non-marketed assets” (hence, their value is more difficult to assess, which motivates the
monitoring). Before the middle of the 19th century few firms could offer marketable assets (like stocks in firms,
because they were not large enough), thus favoring bank financing.
By the second half of the 19th century in Europe the importance of these 2 institutions differed markedly and
some difference remain still today “path dependence”: notion that present economic decision are dependent
not only on present conditions but also on historically given economic decisions which constrain future choices .
German banks provided finance to industry at a crucial formative moment and they subsequently stifled the
development of stock markets. So, initial conditions determined which one prevailed. However, a
supplementary explanation suggests that any combination of the two is better than just one: banks often fail,
while markets function even in period of banking crises.
In perfect stock markets, all available info regarding a firm is expressed by the stock price. However, markets
are not perfectly efficient. When there is info of underpriced or over-priced stock, it’s impossible to keep it
secret because the new info will be revealed by a trading movement (buying the stock if it’s underpriced and
vice versa, thus leading to the adjustment of the price). This implies that stock markets do not sufficiently
reward those who research the fundamentals of firms (under-investment in info gathering). Excessive price
movements unrelated to fundamentals typically occur for stock in new industries where there is a need to
invest in the collection of info. Insufficient info can lead to herd behavior (investors follow the behavior of
others, assuming they are better informed). Banks invest more in researches about the counterpart because
they can keep the info private, which may improve the efficiency of investments (even if banks can have a lot of
market power, used to secure a larger share of the profits of the firm). In conclusion, the best solution is an
economy not totally dependent on either of them.
The international Gold standard
Fixed exchange rates emerged by accident: gold had been used as money since ancient times. When countries
began to fix their currencies against gold in a more institutionalized way in the 19th century, their currencies
automatically began fixed against each other. The Gold Standard has its origin in the Resumption Act of 1819
which resumed and institutionalized the practice of exchanging currency notes for gold on demand at a fixed
rate. Simultaneously, restrictions on the export of gold were repealed. Previously countries had often practiced
bimetallism, whereby both gold and silver formed the basis of the monetary supply. (gold was too valuable to
be suitable for smaller purchases). Britain led the way basing her currency on gold alone, and countries
followed except from the US (bimetallic until 1873). Emerging states, such as Germany and US, were quick to
form their monetary union. Attempts to create international monetary unions: 1) Scandinavian Monetary
Union in 1875 2) Latin Monetary Union in 1875. France saw LMU as the nucleus of a system based on the
franc and Paris (it was bimetallic #GB for its rivalry). These unions were not particularly important because by
1870 all countries were basing their currency on gold (regime of fixed exchange rate). There are some rules of
the game:
The currency should be freely convertible to gold at a set price or mint parity
There should be no barriers to the flow of capital, i.e. gold, between countries
Money should be convertible on request to gold and thus backed by gold reserves
In reality, however, small deviations in the exchange rate were possible due to the transport and transaction
cost involved in shipping gold. Governments under the gold standard took on the whole a hands-off attitude
towards economic policy (justified by theory: “price-specie-flow mechanism” by Hume, whereby gold
standard should automatically ensure balance of payment equilibrium i.e. sum of all economic transactions of
a nation with all other nations during a specific time period). He imagined a situation where gold was flowing
into Britain from abroad, thus causing GB prices to rise in relation to those abroad. As GB demand for foreign
goods increased and demand for GB goods decreased, gold would start flowing abroad again, and equilibrium
would be restored. In practice, central banks were more worried about gold losses than gold gains. They often
practice “sterilization” of gold inflows i.e. counteracting the inflationary tendency of capital flow, preventing
them from entering the money supply. This enabled them to build up excess gold reserves, in direct
contravention of the rules.
Despite these deviations, the Gold Standard lasted many years: 1) Commitment: deviations were to be
followed by a return to original parity 2) Confidence: people believed that exchange rates would remain fixed
so all speculation went in the direction of maintaining the fixed exchange rates. 3) Symmetry: no one country
had overwhelming influence on price levels, because the price of gold was dictated by international demand
and supply. when gold became scarce toward the end of the 19th century, there was a general inflation,
balanced by the discovery of new extracting methods. High inflation and deflation can cause economic distress,
but governments turned a blind eye (they were able because policy didn’t focus on domestic objectives, such as
combating unemployment. An exception which proves the rule is the deflation in US, when a return to
bimetallism was campaigned for).