Summary. How the third cathedral at Lichfield was built can be deduced from methods used elsewhere. The names of various master-masons are known and could be linked with other cathedrals.
Planning
A master mason would have had a good idea of the kind of
building needed having worked on other sites, especially if on a cathedral in
France. He would have gained experience and known what was possible and
innovative. He would then have to obtain agreement with the bishop or a king.
However, much of the design formed as the work progressed. An upper room in
York Minster has plaster on the floor with drawings of bits of the cathedral
stonework and it is thought this was how the setting out was done.
John Harvey's drawing of the Plaster Room at York Minster as published in an article at the Friends of York Minster 40th Annual Report, 1968. See also the tracing floor at Wells Cathedral at www.tracingthepast.org.uk/2020/10/28/wells-tracing-floor-ecaade-2020/
There would have been many wooden templates made to give
consistency of shape. At York Minster there are templates stored in the Mason’s
Loft. Stonemasons would repeat their speciality work. French stonemasons in the
Ile de France had worked out the stresses on the frame of a cathedral and began
to change its appearance and functionality. At the time it was known as Opus
Francigenum or French work,[1] and only much later called
Gothic.
Lichfield
cathedral has resemblances with Wells and Salisbury and its time of
construction is similar to York Minster. Parts are similar to corresponding
parts at Lincoln and Hereford. It is presumed the masons corresponded between
these centres.
Geometry
Master masons would know much about geometry and ratios that
give a pleasing appearance. He would know about unit lengths including the
perch or rod length. The current cathedral has an east end with a few
dimensions close to a long perch of 18 feet and the west end nave has a medium
perch length of 16.5 feet. Most dimensions followed a formula, though this
changed with architectural styles. For example. the three levels in the nave,
ground floor arches, triforium and clerestory, have a harmonious ratio of close
to 2:1:1, which is also seen at Westminster Abbey and Beverley Minster. That
meant the ground storey occupied one-half of the total height.[2]
It was said to show a ‘smooth fluidity of upward movement.’
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Nave wall showing general ratio of
elements. The original lengths were likely to be a rod or perch, but that is
difficult to prove with changes to the floor level and roof.
Another ratio was the width of
the nave and aisles (21 m or 68 feet) which is close to half of its length (43
m or 140 feet) and all but the western columns are 16.5 feet (one modern perch)
wide from centre to centre. The width between the columns right through to the
high altar is 30 feet (two short perches).
Another easy calculation was to make a perfect square by having a diagonal equal to 1.4 x length of a side. Since the nave is two squares each with a wall length of 68 feet, ensuring the nave is built absolutely square could have meant the diagonal had to be 95 feet. The crossing is a square of 30 feet so the diagonal had to be 42 feet. The nave is 8 bays in length and so is the east end from the crossing to the Lady Chapel, so this arm of the cathedral is also two squares in area. There is a simplicity of shape based on simple geometry.
Archways for doors and windows
became pointed and known as an equilateral arch based on two intersecting
circles. Pointed arches began at Abbot Suger’s cathedral of St. Denis in Paris
and were quickly taken up in England. When compared with round arches, the pointed
arch was more effective in distributing the force of heavier ceilings.
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| Arches drawn with two intersecting arcs. Different widths of arch arose from changing the point of centre. |
The octagonal middle spire rests on arches springing from the square tower. These arches called squinches share the load of the tower.
Building the foundation
Usually, a trench was dug out of
the bedrock and filled with burnt limestone and sand mortar between rubble
stone. When aboveground the foundation was shuttered between wooden panels
which left a mark on the side of the mortar. The third cathedral was built
around the outside of the second cathedral and probably the only shuttering
needed was on the outside. Much of the rubble must have come from the upper
walls of the second cathedral. Decorative stone has been found in the north
nave wall foundation, second bay, which must have been recycled.
Late Saxon
cross shaft in foundations of north aisle nave wall, clearly recycled.
![]() |
| Plan of the cathedral showing there was much building with the second cathedral to give support and building material for the foundation of the third cathedral. |
Building the walls
Much stone was pre-shaped at the
quarry. The quality of the stone was selected by the master mason. Much stone
came from the quarry at Hopwas and was probably carried by a cart drawn by oxen
or horses. Stones were laid with a thin layer of mortar (burnt limestone and
sand). Lime mortar takes a long time in years to set and this allows the wall
to settle; it is unlike modern mortar which acts like a glue.
Columns were extra-large in girth, indeed were over-engineered
with up to 100 tonnes weight on a square metre of foundation. The weight of the
roof was around 3% of this total weight of wall and columns, which indicates a
wide margin of thrust.
Ropes and pulleys were used to raise up small fashioned
stone. Sometimes a winch was used which was a lifting device consisting of a rope or chain winding round
a horizontal rotating drum. For very large stone a windlass was used which
consisted of a large wheel or drum turned by several labourers inside the drum.
The windlass could lift stone ten times more in weight than the men turning the
wheel.
Wild Mare tread-wheel used to build a tall spire at St James
Church in Louth, Lincolnshire, in 1515. The men were paid 3d per day for its
use.
It is thought
as many as 200 labourers would be working on the site. At Westminster Abbey in
1253 between 3-400 workers were involved. Including those fashioning the stone
at the quarries and transporting it possibly needed 6 to 800 men.[3] Some
labourers would be allowed to climb ladders and work off the timber scaffold.
Woodworkers would be present in number. Blacksmiths were needed to make tools
and the ironwork sometimes used to strap the stonework. There would be masons
shaping the stone away from the site and labourers taking the stone at the
quarry. All needed to be housed and fed. Labourers would have probably
conversed in Old English, the masons in French and the priests in Latin. This
diversity means there was a community entirely devoted to building a cathedral.
Much knowledge passed down through families and later on through Guilds.
King Dagobert visiting the construction site of Saint-Denis
"Les Grandes Chroniques de France". 15th century, Bibliothèque Nationale
de France. Wikimedia, Public Domain. Notice the windlass and winch in the
distance on the roof.
Building an arch
A wooden frame was made to a size that would support an
arch. Shaped stone or voussoirs in blocks were placed over the frame until the
top middle keystone was inserted. The frame was then removed. The shape caused
the thrust of each stone to be inwards and this held it together. There was no
need for a buttress on the outside since the downward pressure was inwards. ‘Y’
shaped grooves in the hidden side of the voussoirs were made to hold molten
lead and this was a way to set rigid the arch, especially with its lifting.
Centring frame to build an arch
Building a vault
A diagonal wooden frame was used. The rib voussoirs were
placed on the frame and the keystone added to lock it in place. Once the ribs were
completed a new frame was constructed for placing thin, shaped stone in the
spaces (severies or panels) between the ribs. Large bosses were sculpted for
the centre key stone and they masked any deviation from the diagonal. The
thrust of the ribs was downwards onto piers and not on the wall.
Building a roof
A tall timber scaffold was constructed from the floor to the
roof and a platform of wood placed across the top. On this was built the wooden
frames for the vaulting ribs and then the severies. Removing the frame would be
by have a block of wood at the base which had a hollowed base. By sawing down
at the three lines, the block dropped a small amount. This would allow the
frames on the platform to be removed. The whole scaffold was then moved to the
next bay and a new vault constructed.
Support
scaffold for adding a roof
Master masons were the esteemed builders
of cathedrals and were highly paid and well looked after. They had to be able to manage a large
team of workers and coordinate the delivery of materials and supplies. Some
master masons working on the cathedral have been named. Work on the south transept, c. 1220, was
under Thomas the Elder. He also supervised the building of the chapterhouse, 1240s. There are various master masons with this name and
especially an esteemed mason working on Westminster Abbey in the 14th-century. The nave
was presumably directed by Thomas Waleys (Wallace) master of the fabric in
1268, who had succeeded William Fitzthomas by this date. It
is possible Bishop Langton employed Henry Ellerton, master of the king's works,
as his master mason to build a castellated boundary wall, 15 m high,
with battlements around the Close. It had two fortified gates, four large
towers and a moat and ditch. William
Franceys has been suggested as the master-mason employed by Langton for the
Lady Chapel and he might possibly have been a Frenchman.[4]
For Langton’s palace it was recorded Master Walter was the carpenter and
Master Hugh de la Dale the mason.
Supposed face of Walter de Ramessey, a master mason engaged
in 1337 to join the extension of the choir with the old choir so that the
continuation was masked. Walter was a ‘King’s Mason’ and this face Is on the
east side of the capital of the pillar by the north gate of the choir.[5]
.
[1] The term
Gothic was first coined by Italian writers in the later Renaissance period
(late 15th to early 17th–century). It was meant to be derogatory meaning
barbaric. Between 1180 and 1270, eighty cathedrals, five hundred abbeys and
tens of thousands of churches were built in France.
[2] P.
Brieger, The Oxford History of English Art (1216–1307), (Oxford: 1957),
185.
[3] D.
Carpenter, Henry III. The rise to power and personal rule 1207–1258. (New
Haven and London: 2020), 336.
[4] Is
Franceys a corruption of France? J. Harvey, English Medieval Architects. (Stroud:
1984) 105 conjectured if the master builder was William of Eyton instead.
[5] H. E. Savage, The fourteenth century
builders, Unpub. article in Cathedral Library, (1916), 22.










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