The Archaeology of Britain: An introduction from ... - waughfamily.ca
The Archaeology of Britain: An introduction from ... - waughfamily.ca The Archaeology of Britain: An introduction from ... - waughfamily.ca
The industrial revolution • 285 • power (Crossley 1990). The overall pattern was not, however, one that was very different to other European countries, and it was only after 1750 that the face of Britain began to change visibly. Raw materials The development of the British coal industry in the years prior to 1750 was to have a significant impact on the wider process of industrialization. The expansion of the coal industry not only enabled industries to move from dependency on timber or charcoal, but also created much of the transport, capital and settlement infrastructure on which later industrialization was based. This infrastructure is very apparent in the archaeological record. In order to understand the development of coal-production, it is important to realize that there are different types of coal in Britain—domestic coals, coking coal that can be used in furnaces, steam coal and anthracite. The earliest coals to be exploited were the low sulphur domestic coals, which could be burnt comfortably in a grate without emitting noxious fumes. This coal was also used for industrial purposes on a large scale from the sixteenth century onwards for burning lime, malting, glass-making and baking. The demand for coking coals grew considerably during the late eighteenth century, following the discovery of ways in which to use such coal in iron-making. Early coal mines consisted of adits, or short tunnels into the seam where it outcropped near the surface, but little evidence for these survives on the surface. In areas such as the Clee Hills in Shropshire, or Rudland Rigg in North Yorkshire, regular patterns of circular spoil mounds are surface evidence for the short shafts or bell pits dug from the surface down into the coal below. One of the biggest problems with any evidence for mining is the difficulty of dating surface evidence such as this without some access to below ground works; the large open-cast coal mines dug in recent years have often exposed, and destroyed, archaeological evidence for the techniques used in early coal mines. In 1991, a timber pit prop from Lounge colliery in Leicestershire dating to between 1450 and 1463 provided one of the earliest accurately dated coal mining finds in Britain, and showed that pillar and stall workings dated to the late fifteenth century. Mines provide only a tiny fraction of the evidence for coal mining. Coal was bulky and road transport difficult, and hence one of the earliest solutions was the use of wooden wagons or railways pioneered in Newcastle early in the seventeenth century. At Bersham, Clwyd, archaeologists have excavated a 40 m length of wooden waggonway in situ that was associated with the nearby ironworks and probably used for transporting coal and ironstone (Grenter 1993). Elsewhere, historic tramways survive in the landscape as old routes or footpaths, and occasionally as large pieces of engineering, as at the Causey Arch near Durham—a huge masonry tramway bridge that demonstrates the sophistication of, and level of investment in, many of these early tramway routes. Coal mining also created a new demand for labour that could not always be satisfied from byemployment amongst traditional agricultural villages near the coalfields. From the seventeenth century onwards, new communities are found in coal-mining areas and can be evidenced from scattered plots of land. Many, such as those in the Forest of Dean, the Potteries and the Black Country, became the nuclei of later industrial areas. Iron One of the great breakthroughs in industrialization was the increasing use of iron as a material in construction, in engineering and even in ship-building. Wrought iron had been produced in small quantities since prehistoric times in bloomeries, but it was only with the introduction of the charcoal blast furnace in c.1500 that iron was produced in large quantities, both as cast iron straight from the furnace, or converted into the more flexible wrought iron at the finery forge.
• 286 • Kate Clark Archaeological survey and excavation of charcoal furnaces in the ore-bearing areas of Sussex, Kent and Surrey, such as that at a sixteenth-century furnace at Chingley in Kent (Cleere and Crossley 1985), have shown how such furnaces developed and operated in the area where they were first introduced from Europe. It has been demonstrated that the use of blast furnaces spread from there to the Midlands, Wales in the seventeenth century, and only much later into the Forest of Dean, where bloomeries persisted until c.1700. This is a pattern that illustrates a very common phenomenon in the industrial period—namely that the adoption of new technology within an industry is rarely automatic, nor is the spread of technology to new places a steady or straightforward process. The transition from charcoal smelting to coke smelting, often held to be one of the major factors behind increased iron production during the eighteenth century, is an equally complex process. In 1709, Abraham Darby began to smelt iron using coke rather than charcoal at an old charcoal furnace at Coalbrookdale in Shropshire that he adapted for the purpose (Clark 1993). However, it is important to note that the iron Darby produced was suitable for castings, but could not be converted into the more flexible wrought iron. It was not until much later that a means of using coke to produce iron that could be converted to wrought iron was discovered, and coke production began to expand rapidly. The transition is illustrated in archaeological excavations at Rockley in Yorkshire (Crossley 1990, 166), where the site of a seventeenth-century water-powered bloomery was reopened and used with coke in the late eighteenth century. In some areas, such as Furness in Cumbria, coppicewood for charcoal production was plentiful, and charcoal iron smelting persisted until 1867. A number of charcoal or coke iron furnaces survive across Britain, but the furnace was only one element in a working industrial complex that would have included casting houses, blacking mills, grinding mills for cleaning off castings, pattern-making shops and offices, almost all of which have now disappeared. One of the best preserved charcoal iron complexes is that at Bonawe, Argyll, where buildings for storing charcoal and ore survive, as well as the furnace and associated water power system (Figure 16.3). Archaeological excavations over a large area at Newdale in Shropshire illustrated the extent of a works devoted to remelting iron for castings— the site included back-to-back workers’ cottages, air furnaces, a casting building and forge, all without any form of water power. Steel was essential for producing sharp blades. Most steel was imported until the introduction in the seventeenth century of a German method of cementation that has since been identified from excavations at Derwentcote in Co. Durham. Crucible steel production (where metal is heated in pots) can be seen at Abbeydale Forge in Sheffield, but steel was produced only on a very large scale, and thus cheaply after the introduction of the Bessemer converter in 1856. Figure 16.3 Ironworks at Bonawe, Argyll. Source: Kate Clark Non-ferrous metals As with iron, the exploitation of nonferrous metals expanded greatly
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<strong>The</strong> industrial revolution<br />
• 285 •<br />
power (Crossley 1990). <strong>The</strong> overall pattern was not, however, one that was very different to other<br />
European countries, and it was only after 1750 that the face <strong>of</strong> <strong>Britain</strong> began to change visibly.<br />
Raw materials<br />
<strong>The</strong> development <strong>of</strong> the British coal industry in the years prior to 1750 was to have a signifi<strong>ca</strong>nt<br />
impact on the wider process <strong>of</strong> industrialization. <strong>The</strong> expansion <strong>of</strong> the coal industry not only<br />
enabled industries to move <strong>from</strong> dependency on timber or charcoal, but also created much <strong>of</strong><br />
the transport, <strong>ca</strong>pital and settlement infrastructure on which later industrialization was based.<br />
This infrastructure is very apparent in the archaeologi<strong>ca</strong>l record.<br />
In order to understand the development <strong>of</strong> coal-production, it is important to realize that<br />
there are different types <strong>of</strong> coal in <strong>Britain</strong>—domestic coals, coking coal that <strong>ca</strong>n be used in<br />
furnaces, steam coal and anthracite. <strong>The</strong> earliest coals to be exploited were the low sulphur<br />
domestic coals, which could be burnt comfortably in a grate without emitting noxious fumes.<br />
This coal was also used for industrial purposes on a large s<strong>ca</strong>le <strong>from</strong> the sixteenth century onwards<br />
for burning lime, malting, glass-making and baking. <strong>The</strong> demand for coking coals grew considerably<br />
during the late eighteenth century, following the discovery <strong>of</strong> ways in which to use such coal in<br />
iron-making.<br />
Early coal mines consisted <strong>of</strong> adits, or short tunnels into the seam where it outcropped near<br />
the surface, but little evidence for these survives on the surface. In areas such as the Clee Hills in<br />
Shropshire, or Rudland Rigg in North Yorkshire, regular patterns <strong>of</strong> circular spoil mounds are<br />
surface evidence for the short shafts or bell pits dug <strong>from</strong> the surface down into the coal below.<br />
One <strong>of</strong> the biggest problems with any evidence for mining is the difficulty <strong>of</strong> dating surface<br />
evidence such as this without some access to below ground works; the large open-<strong>ca</strong>st coal mines<br />
dug in recent years have <strong>of</strong>ten exposed, and destroyed, archaeologi<strong>ca</strong>l evidence for the techniques<br />
used in early coal mines. In 1991, a timber pit prop <strong>from</strong> Lounge colliery in Leicestershire dating<br />
to between 1450 and 1463 provided one <strong>of</strong> the earliest accurately dated coal mining finds in<br />
<strong>Britain</strong>, and showed that pillar and stall workings dated to the late fifteenth century.<br />
Mines provide only a tiny fraction <strong>of</strong> the evidence for coal mining. Coal was bulky and road<br />
transport difficult, and hence one <strong>of</strong> the earliest solutions was the use <strong>of</strong> wooden wagons or<br />
railways pioneered in New<strong>ca</strong>stle early in the seventeenth century. At Bersham, Clwyd, archaeologists<br />
have ex<strong>ca</strong>vated a 40 m length <strong>of</strong> wooden waggonway in situ that was associated with the nearby<br />
ironworks and probably used for transporting coal and ironstone (Grenter 1993). Elsewhere,<br />
historic tramways survive in the lands<strong>ca</strong>pe as old routes or footpaths, and oc<strong>ca</strong>sionally as large<br />
pieces <strong>of</strong> engineering, as at the Causey Arch near Durham—a huge masonry tramway bridge that<br />
demonstrates the sophisti<strong>ca</strong>tion <strong>of</strong>, and level <strong>of</strong> investment in, many <strong>of</strong> these early tramway<br />
routes.<br />
Coal mining also created a new demand for labour that could not always be satisfied <strong>from</strong> byemployment<br />
amongst traditional agricultural villages near the coalfields. From the seventeenth<br />
century onwards, new communities are found in coal-mining areas and <strong>ca</strong>n be evidenced <strong>from</strong><br />
s<strong>ca</strong>ttered plots <strong>of</strong> land. Many, such as those in the Forest <strong>of</strong> Dean, the Potteries and the Black<br />
Country, be<strong>ca</strong>me the nuclei <strong>of</strong> later industrial areas.<br />
Iron<br />
One <strong>of</strong> the great breakthroughs in industrialization was the increasing use <strong>of</strong> iron as a material in<br />
construction, in engineering and even in ship-building. Wrought iron had been produced in small<br />
quantities since prehistoric times in bloomeries, but it was only with the <strong>introduction</strong> <strong>of</strong> the<br />
charcoal blast furnace in c.1500 that iron was produced in large quantities, both as <strong>ca</strong>st iron<br />
straight <strong>from</strong> the furnace, or converted into the more flexible wrought iron at the finery forge.