Historical Archaeology
in South Africa
Material Culture of the Dutch East India Company at the Cape
Carmel Schrire
With contributions by
Jeffrey J. Durst, Adam Robert Heinrich, Stacey Jordan,
Jane Klose, and Carolyn L. White
Walnut Creek, CA
Left Coast Press, Inc.
1630 North Main Street, #400
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CHAPTER 9
Objects of Personal Adornment at the Cape
Carolyn L. White
Introduction
This chapter provides an analysis of objects of personal
adornment found in two Dutch East India, or VOC, sites at
the Cape. The first is the Van der Stel Moat at the Castle of
Good Hope (M90), and the second is Oudepost I, an outpost of the main settlement lying about 100 km north on
the shores of Saldanha Bay (see Chapter 2). Together they
provide insight into the gender, rank, and physical appearance of residents living under VOC rule in the late 17th and
early 18th century Cape.
Artifacts may be divided into four categories: clothing
fasteners, jewelry, hair accessories, and miscellaneous personal accessories (White 2005: 10). The Moat (M90) assemblage consists solely of buttons; the Oudepost assemblage
comprises buckles, buttons, finger rings, and a segment of
chain, likely from a watch chain or waist-hung appendage. The clothing fasteners—buttons and buckles—can be
categorized by size, material, and decoration, and may be
used to identify the sorts of clothing worn by the site inhabitants. Buckles may be linked to particular articles of clothing (shoes, breeches, straps/swords), and buttons reflect the
level of elaboration of the clothing as well as its overall diversity. In both cases, material and level of decoration also
allude to rank and status differences among the wearers.
The documentary record is largely unaccommodating
in its recording of the clothing and accessories worn by
the people who lived at Oudepost I and at the Castle. The
uniforms of the military are carefully described in Mentzel
(1925 [1725]) and the supply lists record a wide variety of
clothing materials shipped to the Cape, consisting mainly
of textiles, but these describe only a few types of buttons
and a few accessories (Leibbrandt 1902; Thom 1952). On
the other hand, the archaeological record provides material
remains that reify the clothing and garb of the Cape inhabitants. The only comparable work to date is that of Elizabeth
Jordan (2006). Her study of late 18th-19th century washerwomen postdates the collections studied here, but incorporates a thorough examination of many artifacts of personal
adornment, particularly buttons (ibid.: 2006). Her analysis
draws on (and critiques) work on contemporaneous collections in North America (e.g., Edwards-Ingram 1999; Galle
2004; Heath 1999; Mullins 1999; Wilkie 2003).
Analysis
On the whole, the personal adornment assemblage, like
much of the material culture of the VOC, was imported
from Europe. There might have been limited local production of bone buttons, since supply lists do not mention these being imported, but there is an absence of button making waste recovered at the sites. The presence of a
button mold (discussed later in this chapter) suggests that
there were some early attempts to supplement the European
metal imports. The following analysis categorizes personal
adornments according to the divisions laid out in American
Artifacts of Personal Adornment (White 2005) and draws on
resources contained in that volume for identification. Given
the very restricted information that is available for personal
adornment for this period, each individual artifact type is
described. The artifacts are grouped by clothing type and
discussed as sub-assemblages. Appendix F contains a list of
the personal adornment artifacts and the associated catalog
numbers used in the text.
Carolyn L. White, “Objects of Personal Adornment at the Cape“ in Historical Archaeology in South Africa: Material Culture of the Dutch East India Company at the Cape, pp. 205–212. © 2014 Left Coast Press, Inc. All rights reserved.
205
206
H I S TO R I C A L A RC HA E OLOGY I N SOU T H A FR I C A
Clothing fasteners
Jewelry
The clothing fasteners are broken into the following categories: aglets, buckles, and buttons (the last of which includes
a single button mold as well).
Jewelry is represented at the Cape sites in a very small quantity.
Aglets
Sites
Castle: Van der Stel Moat: Discussion
Buckles
The buckles are divided into the following categories:
Shoe buckles
Whole buckles
Frames
Whole
Fragments
Chapes
Knee buckles
Whole
Strap buckles
Whole
The buckles are analyzed using standard descriptions established in White 2005. Although the personal adornment
artifacts from the Cape are Dutch in origin, they parallel
styles and fashions seen in England and throughout Europe
from the period (e.g., Abbitt 1973; Egan and Pritchard 1991;
Mould 1979; Swann 1981). Certainly, they exhibit stylistic
individuality.
The personal adornment collection from the Moat is restricted to buttons. It is possible that a more varied component was excavated and that it has been misplaced, in which
case we look forward to its re-appearance at some future date
(Carmel Schrire 2009, pers. comm.). The distribution of the
buttons in the excavation shows that most are found in the
richest level of the site, A2, but this distribution does not permit generalizations about Cape dress or status (Table 9.1).
Table 9.1. Van der Stel Moat (M90)
distribution of buttons by Level
Level
Nos.
%
A
5
5.2
A1
11
11.3
A2
70
72.2
B
5
5.2
NP
6
6.1
97
100.0
Total
Buttons
As in the case of the buckles, the buttons are analyzed using
standard descriptions developed by White (2005). The buttons are divided into the following categories:
Sleeve
Waistcoat buttons
Metal
Bone
Shanked
Sew-through
Coat buttons
Metal
Bone
Shanked
Sew-through
Unidentified function
Button mold
Within each major category, buttons are divided according to diameter, and then further separated into decorated
and undecorated examples.
The waistcoat buttons from the Castle Moat are made
exclusively of bone. Most of the buttons are undecorated,
with drilled shanks. Those that are decorated are simply
elaborated with incised rims and range in size from 13 to 17
mm. The coat buttons are mostly bone, with the exception
of two metal ones (BT 8, 9). BT 9 (Figure 9.1) is a very large
copper alloy button (28 mm in diameter). It is the largest
button recovered on the sites and suggests a high level of
elaboration for the garment on which it was worn.
Figure 9.1. Large coat button (BT 9) from the Castle Moat (M90)
excavation, made of copper alloy. Scale in cm. (Photo C. White)
OBJECTS OF P ERSONAL ADORNMENT
The bone buttons range in size from 19 mm to 25 mm,
with most falling in the range of 14 to 16 mm. Many are decorated with incised rims, but this is the extent of the elaboration
of these buttons. A single button is green, perhaps tinted by
a copper or fabric cover. Most of the buttons fall into the category of ‘unidentified function’ and cannot be slotted into the
categories in the previous section with certainty.
Within this category are several buttons that are notable.
There are several very small bone buttons (BT 27-34) that
range from 7 to 9 mm (Figure 9.2). They may be shirt or
sleeve buttons. Five of these are small, undecorated buttons of the same size (9 mm) that may have belonged to
the same garment. A single sew-through button (BT 96) was
identified. It is a button core that was likely covered with
textile when worn.
207
The Oudepost I clothing fasteners comprise aglets, buckles, buttons, and a button mold. Two aglets were identified.
They are made of sheet copper, curled into a tube with a
straight seam along the edge in the fashion used since the
medieval period (White 2005: 31). They have rounded tips,
formed by rotating the end against a flat surface. The base of
the aglet is pinched, to hold the lace in place.
The Oudepost I sub assemblage includes complete
buckles as well as frames and chapes. Most of these are
shoe buckles, as indicated by the size and form of the frame
(White 2005). The buckles are similar in form to those identified in more well-documented British excavations (Egan
and Pritchard 1991), but also possess characteristics that
suggest an origin other than England.
The complete shoe buckles are small and adhere to fashions of the late 16th and early 17th centuries (White 2005:
40). Though the two buckles offer contrasting styles, they
are consistent with the scalloping and knops and serrated
decorations favoured in the period of 1680 to 1720 (White
2005: 40). These buckles also possess stud chapes, which
were common in the period up to 1720 (White 2005: 40,
41) (Figures 9.3, 9.4).
Figure 9.2. Small bone button (BT 28) from the Castle Moat
(M90) excavation. Scale in cm. (Photo C. White)
The remaining unclassified buttons are mostly undecorated bone buttons with drilled shanks. These are convex buttons that vary in size from 12 to 20 mm. The buttons are very
similar in that they are undecorated. Variation in the form of
the drilled shanks suggests the individual hand of the maker.
There is therefore tremendous uniformity in these fasteners in the convex shape and lack of elaboration on the
buttons. Even the decorated buttons have restrained elaboration. Most of the decorated buttons are incised on the rim,
but this decoration is far from sophisticated and reinforces
the vision of the site inhabitants as rather simply clothed.
There are several buttons that are somewhat more elaborate;
for example, BT 58, a possible waistcoat button, has a turned
design. The controlled designs attest to the overall conservative nature of dress at this site. This lack of elaboration may
be expected at a far-flung VOC settlement where the bulk of
the clothing materials were imported as provisions for the
garrison (Mentzel 1925 [1725]: 59-61). However, the simplicity of the buttons also suggests uniformity in physical
appearance in terms of dress across the population.
Oudepost I
Unlike the Castle collection, the personal adornment from
Oudepost I exhibits far more variation than the button collection from the Castle Moat. We are unable to assume,
however, that buckles and jewelry were never present in the
Castle Moat because some small components of the collections are currently missing.
Figure 9.3. Complete shoe buckle (BK 1) from the
Oudepost I excavation. Scale in cm. (Photo C. White)
Figure 9.4. Complete shoe buckle (BK 2) from the
Oudepost I excavation. Scale in cm. (Photo C. White)
The rest of the shoe buckles are fragmentary buckle elements: frames and chapes. The decorative motifs on the
frames range from simple bevelling to knops and scalloping. Three of the frame fragments (BK 9, 10, 11) are elaborate openwork frames with ribbon and bows design (Figure
9.5). These buckle fragments suggest the presence of a pair
of shoes and the high level of decoration associated with
this particular element of attire. The shoe buckle chapes are
cooking pot shaped with a single tongue. This form was utilized beginning around 1720 in order to secure larger buckles to the shoes (White 2005: 42).
208
H I S TO R I C A L A RC HA E OLOGY I N SOU T H A FR I C A
Figure 9.7. Sleeve button (BT 2) set with stone, from the
Oudepost I excavation. Scale in cm. (Photo C. White)
Figure 9.5. Partial shoe buckle frame with ribbon and
bow design (BK10) from the Oudepost I excavation.
Scale in cm. (Photo C. White)
Figure 9.8. Four-holed bone button (BT 33) with
incised border from the Oudepost I excavation.
Scale in cm. (Photo C. White)
Figure 9.6. Iron knee buckle (BK 21) from the Oudepost I
excavation. Scale in cm. (Photo C. White)
There are two remaining buckles aside from shoe buckles. The first (BK 21) is a knee buckle made of iron (Figure
9.6). It is identifiable as such due to the form of the chape,
which is anchor shaped. The small size of the buckle suggests that it was used to fasten breeches at the knee. This likely dates from the later portion of the occupation of the site,
as knee buckles became popular in the 1730s (White 2005:
43). The second buckle (BK 22) is a sword or baldric buckle.
Turning to buttons, they comprise the bulk of the Oudepost assemblage, and include sleeve, waistcoat, and coat buttons as well as a number that are not readily identifiable by
garment. The Oudepost I buttons are made of metal (primarily copper alloy), bone, and shell.
Eight metal sleeve buttons were identified in the Oudepost
I excavations. Two sets are fragmentary and two are complete.
The fragments are identifiable as sleeve buttons based on the
flattened U-shaped shanks and the small size of the buttons
(White 2005: 61; Noël Hume 1961: 383). One of these (BT 1)
is undecorated, and the other (BT 2) is set with a white stone
and has a beaded border (Figure 9.7). A connecting wire loop
remains attached to the shank. The first intact set is decorated
with tiny dots on the border; they remain attached with a wire
loop. A second intact set is large in size, with a chained decorative border and a central floral design; the large size is unusual.
The waistcoat buttons are made of metal and bone and
exhibit variation in the decoration as well as in the form. The
metal buttons have two primary forms: hollow cast two-piece
buttons that are brazed together with pin shanks and solid cast
buttons with cast or brazed shanks. All of the metal waistcoat
buttons are undecorated, with convex or flat shiny surfaces.
The bone waistcoat buttons are both decorated and undecorated. The undecorated buttons, like the metal ones,
possess smooth convex or flat surfaces. The decorated buttons are either incised on the rims or possess a border and
nippled decoration in the center.
Most of the bone waistcoat buttons are shanked, save
four sew-through buttons. Two of these are cores with a
domed shape, while one is flat. These buttons would have
been covered with textile when worn, which would have
served to attach the button to the garment. A single fourholed sew-through button with an incised border (BT 33)
was also recovered (Figure 9.8). This button is likely a waistcoat button, but may have been a breeches button.
The coat buttons in the Oudepost I assemblage are
made of bone and metal and are made in a manner similar
to the waistcoat buttons in terms of production and decoration. They measure between 14 and 32 mm.
The metal coat buttons exhibit a range of decoration.
Two buttons (BT 34, 40) possess an octagonal shape as well
as a nipple decoration (Figure 9.9). Another (BT 35) has a
domed surface with crossed lines and a central nipple. Central nipple motifs are found on additional coat buttons. Organic designs are found on other buttons. One (BT 38) is
a stamped copper alloy button cover with a stamped oval
design with sunburst (Figure 9.10), and another (BT 36) has
an engraved floral design on the surface (Figure 9.11).
OBJECTS OF P ERSONAL ADORNMENT
Figure 9.9. Octagonal metal button (BT 40) with nipple decoration from the Oudepost I excavation. Scale
in cm. (Photo C. White)
209
Figure 9.13. Metal button (BT 92) with sunburst
design from the Oudepost I excavation. Scale in cm.
(Photo C. White)
Figure 9.14. Small shell button (BT 102), probably
expensive, from the Oudepost I excavation. Scale in cm.
(Photo C. White)
Figure 9.10. Copper alloy button cover (BT 38) with
sunburst from the Oudepost I excavation. Scale in cm.
(Photo C. White)
Figure 9.15. Intact frog (BT 104) from the Oudepost I excavation. Scale in cm. (Photo C. White)
Figure 9.11. Copper alloy button cover (BT 36) with
floral design from the Oudepost I excavation. Scale in
cm. (Photo C. White)
Figure 9.12. Probable doublet button (BT 70) cast,
with rosette design from the Oudepost I excavation.
Scale in cm. (Photo C. White)
The bone buttons are almost exclusively undecorated and
all but two are shanked. The coat buttons are identified by size,
and these large buttons mirror the form and decoration found
in the waistcoat bone button sub assemblage. Two large sewthrough buttons are also present in this sub assemblage.
Many of the Oudepost buttons are not readily classified
within the categories described earlier in this chapter and
fall into ‘Unidentified function.’ The metal buttons can be
roughly divided into several groups according to diameter.
Buttons that range from 9 to 12 mm may be sleeve buttons
or shirt buttons. There are several (BT 69, 70) that are small
cast buttons with a rosette design (Figure 9.12), and these
are likely doublet buttons.
The second major group of unidentified metal buttons
range in size from 13 to 18 mm. Most of these are undecorated and may be waistcoat, doublet, or breeches buttons.
These buttons are both cast buttons with drilled and brazed
eyes and two-piece hollow cast brazed buttons. Most possess flat or convex, smooth surfaces. A sunburst design and
octagonal shape (BT 92, 93) are shown on two of these buttons (Figure 9.13).
The bone buttons that are unidentified in function are
small and undecorated (B 97-99). These may be breeches
buttons. A single bone core also may be a breeches button.
These were likely plain and otherwise unremarkable elements of simple garments.
Two small shell buttons (B 101, 102) were recovered at
Oudepost (Figure 9.14). Measuring 10 and 11 mm respectively, these would have been among the most expensive
buttons worn at Oudepost, as the shell would have been
imported from the East (White 2005: 71).
Several additional fasteners stand apart from the rest of
the button sub assemblage. A small metal stud (BT 103), an
intact frog (BT 104; Figure 9.15), and a frog fragment (BT 105)
make up this group. The function of the stud is not known; the
frog and frog fragment may have been used to attach a weapon
to the body or to hold edges of a garment together.
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HI S TO R I C A L A RC H A E OLOGY I N SOU TH A FR I C A
A button mold was also identified at Oudepost (Figure
9.16). This is a portion of a three-piece button mold used
to make frog-style button fasteners. The mold has tenon
holes present on two sides and a groove is present to receive the molten metal. This mold is clear evidence of button manufacture occurring at Oudepost (Ivor Noël Hume
1988, pers comm.).
Figure 9.16. Stone button mold
from the Oudepost I excavation.
Scale in cm. (Photo C. White)
Finally, three links of chain (C 1) were also identified
at Oudepost. These links are made of round wire. Chains
were expensive items, as they were handmade and very labor
intensive. It is difficult to ascribe a particular function to a
small piece of chain, but the size of the links suggests its use
as a watch chain or waist-hung appendage.
The location of materials from Oudepost I shows that
they are distributed all over the site, but that most come
from the fort area in Level I (Table 9.2). This is similar to
the distribution of gunflints but differs from the distribution
of other artifacts, such as food remains and coarse earthenwares that concentrate in the Lodge. Since the buckles and
buttons were dislodged from clothing, it may be that their
distribution in the fort reflects the fact that more stress and
activity took place here than in the Lodge.
Table 9.2. Oudepost I (OPI) distribution of personal adornments
by Unit and Level
Object
Unit
Fort
The jewelry in the Oudepost collection includes two finger rings. The first (R 1) is a copper alloy ring with a stone
set in a cabochon setting (Figure 9.17). It may have been a
signet ring, but the condition of the stone is poor and the
surface has deteriorated. The second (R 2) is a copper alloy
band decorated with etched patterns (Figure 9.18). Though
this ring resembles a modern wedding band, it could have
served a variety of symbolic functions in the 17th and early
18th century (White 2005: 94-96). It may have been a symbol of wealth, a mourning ring, a wedding ring, or a betrothal ring. In addition, although there is no hint of Indian or
Asian beadmaking, two broken agate rings of South Indian
manufacture are noted (Karklins and Schrire 1991: 67).
Figure 9.17. Copper alloy
ring (R1) from the Oudepost I excavation. Scale in
cm. (Photo C. White)
Figure 9.18. Copper alloy
band (R2) from the Oudepost I excavation. Scale in
cm. (Photo C. White)
Lodge
Level
NP
X
Total
I
II
Nos.
%
1
1
2
.75
Aglets
2
Buckles
9
11
3
2
8
10
23
17.4
Buttons
57
39
7
14
53
29
103
78.0
Button set
2
2
2
1.5
Chain
1
1
1
0.8
Mold
1
1
0.8
1
Rings
2
70
50
12
2
17
64
39
.75
132 100.0
Summary and Conclusions
The assemblages from the Castle Moat and from Oudepost
I exhibit general similarity in form and appearance. The
Castle Moat assemblage possesses a more limited range of
materials than the Oudepost assemblage, but as in the case
of other personal adornment assemblages (see White 2008,
2004) these differences may be a product of preservation
and excavation strategies more than anything else.
Mentzel’s description of the Cape’s inhabitants provides
great detail for the military uniforms worn by the men (1925
[1785]: 59-61). They were worn only on special occasions,
however, and the artifactual record contains little or no evidence of the expensive items associated with the officers,
adjutants, sergeants, and others with distinctive uniforms.
The personal adornments from the two VOC sites are
dominated by clothing fasteners. Overall they reflect the
appearance of the majority of the presumably European
inhabitants of the site, who were males, both men and
OBJECTS OF P ERSONAL ADORNMENT
boys. The archaeological evidence suggests a relative lack
of diversity in the clothing worn at these sites. Most of the
buttons, and buttons comprise the bulk of the personal
adornment, are very simple forms with smooth surfaces,
suggesting that most of the VOC men were adorned in
similar garb or in uniform.
At the same time, within the assemblages is a smaller
number of clothing fasteners and jewelry that suggest variation in garb across the population, likely across associated
military ranks. Some buttons and buckles are decorated with
rosettes, floral patterns, nippled decorations, and geometric
designs, which would have set the wearers apart from the
bulk of the group. The very small number of additional artifacts of personal adornment, finger rings and a watch chain,
further underscores the presence of physical differentiation
among members of the group.
Mentzel’s description of the uniforms also emphasizes
the associated class differentiation. The dominance in each
assemblage of simple undecorated buttons likely correlates
with the dominance of low ranking soldiers at the sites. As
described elsewhere, the communities were largely divided
into two classes (Jordan and Schrire 2002: 255), and the
plain clothing that was associated with the simple buttons
would have underscored that rank difference.
Supply lists from the 17th century list a wide range of
textiles and other clothing articles that were imported to
the Cape. While the archaeological evidence does not preserve any of the textiles to compare with these lists, there
are records of silvered and copper gilt buttons imported
August 18, 1676 (Leibbrandt 1902: 277) and “hair buttons
for coats” imported December 7, 1699 (ibid.: 236). The
hair buttons likely degraded in the soil, but there is ample
evidence of the metal buttons recovered on these sites.
The personal adornment assemblages provide an image
of the individual appearance of many of the elite inhabitants of the VOC sites. While the plain undecorated buttons
suggest that many of the inhabitants dressed in ways that associated them with portions of the larger ‘unqualified’ class,
the fancy shoe buckles, small buttons with cast rosette designs, and unusual articles of clothing associated with some
of the artifacts found in small numbers reinforces the rank
of those people in the ‘qualified’ class. There is a marked
variation across the decorated items, and while there are
some unifying themes in decoration that have to do with
popular styles of the period, there is also a notable amount
of differentiation within the decorated artifacts. The men of
higher rank would have also differentiated themselves from
one another through the dress they wore.
There has been very little written about South African
(or Dutch for that matter) clothing in the 17th and early 18th
century. In this chapter I have focused on describing and illustrating in detail the kind of clothing worn on the VOC
sites, rather than using the personal adornment to further
211
understand the sequencing of the site (see Chapter 2 for
detailed stratigraphic sequences). As more of this material
is uncovered and published, further refined sequences and
illustrations of the variability and continuity of personal appearance through clothing and adornment will be possible.
Acknowledgements
Many thanks to Carmel Schrire for inviting me to study the
personal adornment of the VOC.
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C H A P T E R 10
Metals and Associated Artifacts
from Oudepost I, Cape
Carmel Schrire
Introduction
Metal finds from Oudepost I include iron, copper, brass,
bronze, pewter, and lead (see catalog). This chapter does
not deal with the large iron collection, which has yet to be
analyzed and conserved. The metal artifacts used for personal
adornment are discussed in Chapter 9. For ease of analysis
I have separated the copper, brass, bronze, tin, and pewter
from the lead, which is described later in the chapter, together
with the molds that were mainly used to produce lead shot.
Copper, Brass, Bronze, Tin, and Pewter
Although copper is often subsumed with scrap alloys or
brass in both the early Cape accounts (Raven-Hart 1967)
and also in colonial metal analyses (Hudgins 2005: 2, 21
footnote 5), it is discussed as a separate category here (Tables 10.1, 10.2).
The Oudepost I copper utensils include a skimmer or
strainer (C 1; Figure 10.1), a dish (C 2; Figure 10.2), and a
barrel strap (C 3), as well as rivets and washers (C 214-226,
229, 329), nails and tacks (C 302-313), a fish hook (C 332;
Figure 10.3), possible bandolier caps (C 334, 335, 342),
hinges and hardware from books (C 338, 339, 343), a fork
(C 345), and a hand cut spur (C 349; Figure 10.4). Twenty
two copper beads from Oudepost are described elsewhere
(Karklins and Schrire 1991: 67), ten of which can be broadly
dated because they resemble those from the wreck of the
De Liefde (1711) (Bax and Martin 1974; Karklins 1988). The
small brass series includes clasps or hinges from books (Br
4, 9, 12; Figure 10.5) and two key escutcheons (Br 7; Figure
10.6). The bronze artifacts include a fragment of a small scissors (Bz 2), two gun sights (Bz 6, 7), a possible spigot (Bz
12), and the handle of an eating utensil initialed ‘SVDM’ (Bz
16; Figure 10.7). Finally there is a scrap of tin and two pewter lids (P 1, 2) off measures (Welz, 1997: 30-31, Pl. 136).
The distribution of identifiable objects is shown in
Tables 10.1, 10.2, and 10.3. They are very few in number,
but their presence carries important connotations about the
garrison posted there. For example, book clasps and hinges
probably came from Bibles or religious tracts, which, together with the archival correspondence and the presence of
slate pencils, points to literate members of the garrison posted there (Schrire 1990: 13-15; Sleigh 1993: 411-468). The
escutcheons might denote the presence of private property.
Finally, if we exclude the burial found at Oudepost (Schrire
et al. 1990), the initialled handle of a piece of flatware (Bz
16) constitutes one of only two personalised objects found
here—the other being a lead cutlery handle described later
in this chapter (L 19). Unfortunately, VOC records listing
the occupants of the post at various times failed to turn up
anyone like a Van der Merwe, let alone one with these initials (Remco Raben 1998: pers. comm.).
Carmel Shrire, “Metals and Associated Artifacts from Oudepost I, Cape“ in Historical Archaeology in South Africa: Material Culture of the Dutch East
India Company at the Cape, pp. 213–220. © 2014 Left Coast Press, Inc. All rights reserved.
213
214
HI S TO R I C A L A RC HA E OLOGY I N SOU TH A FR I C A
Table 10.1. Oudepost I distribution of metal artifacts by Area and Level (numbers)
Metal
Area (nos.)
Fort
Lodge
DP
31
20
-
199
50
5
Copper artifacts
Copper fragments
Brass
Bronze
Level (nos.)
NP
Total (nos.)
%
X
I
II
10
12
22
17
61
3.6
-
38
106
109
34
287
17.0
6
-
-
2
3
6
11
0.7
14
2
-
-
4
11
1
16
0.9
Tin
1
-
-
-
1
-
-
1
0.1
Pewter
-
1
-
1
-
1
-
2
0.1
Lead artifacts
117
119
2
21
35
129
72
259
15.4
Lead shot
984
59
-
7
14
928
101
1050
62.2
1351
257
2
77
174
1203
231
1687
99.7
Total
Table 10.2. Oudepost 1 distribution of metal artifacts by Area and Level (weight)
Metal
Copper artifacts
Copper fragments
Area (gms.)
Fort
Lodge
320.1
238
-
199.7
1249.4
354.1
-
218
Brass
Bronze
Total
NP
X
%
I
II
65
270.4
222.7
757.8
6.5
542.5
820.1
240.9
1821.5
15.7
19.4
13.3
-
-
4.9
14.5
13.3
32.7
0.3
102.8
-
6.9
21.3
165.7
100.3
294.2
2.5
0.6
-
-
-
-
0.6
-
0.6
-
4.8
-
39.5
-
4.8
-
44.4
0.4
3608.1
2962.9
120.7
638.5
358.9
4838.5
1373.6
7330.2
63.2
856.6
312.9
-
141.8
70.4
891.4
207.7
1311.3
11.3
6238.7
3988.8
120.7
1244.5
1063
7006
2158.5
11592.7
99.9
Pewter
Lead shot
DP
Total (gms.)
184.5
Tin
Lead artifacts
Level (gms.)
x
Table 10.3. Oudepost I distribution of copper artifacts by Area and Level (numbers and weight)
Metal
Area
Level
Total (nos./ gms.)
%
Fort
Lodge
DP
NP
X
I
II
31
20
-
10
12
22
17
61
17.5
Copper fragments nos.)
199
50
-
38
106
109
34
287
82.5
Total
230
70
-
48
118
131
51
348
100.00
320.1
238
-
199.7
65
270.4
222.7
757.8
29.4
Copper fragments (gms.)
1249.4
354.1
-
218
542.5
820.1
240.9
1821.5
70.6
Total
1569.5
592.1
-
417.7
607.5
1090.5
463.6
2579.3
100.0
Copper artifacts (nos.)
Copper artifacts (gms.)
METAL S AND ASSOCIATED ARTIFACTS
Figure 10.1. Copper skimmer
or strainer from the Oudepost
I (OPI) excavation (C 1). Scale
in cm. (Photo C. Schrire)
Figure 10.2. Copper dish
from the Oudepost I (OPI)
excavation (C 2). Scale in cm.
(Photo C. Schrire)
Figure 10.3. Copper/?alloy fish hook
(C 332) from the Oudepost I (OPI)
excavation compared with similar one
(C 333) from Castle Moat (M90) excavation. Scale in cm. (Photo C. Schrire)
215
Figure 10.5. Brass clasps or
hinges from books from the
Oudepost I (OPI) excavation
(Br 4, 9, 12). Scale in cm.
(Photo C. Schrire)
Figure 10.6. Brass octagonal plate
(Br 6) and key escutcheon (Br 7)
from the Oudepost I (OPI) excavation. Scale in cm. (Photo C.
Schrire)
Figure 10.7. Bronze utensil handle inscribed ‘SVDM’ (Bz 16) from the Oudepost I (OPI) excavation. Scale in cm.
(Photo C. Schrire)
Figure 10.4. Copper spur from the
Oudepost I (OPI) excavation (C 349).
Scale in cm. (Photo C. Schrire)
In contrast to the recognizable artifacts, the vast majority
of the copper collection is classified as ‘Fragments’ (Tables
10.1, 10.2). They constitute 82.5% by number and 70.6%
by weight of the total copper finds (Table 10.3). Most of
these are pieces of sheet copper, some of which was pierced
and folded and then cut with shears and chisels into various shapes (Figure10.8). Some are patent scraps or cutouts
echoing the extraction of squares and circles (Kelso 2006:
179). In addition, there are irregular and curved pieces that
were apparently parts of kettles and pans, with one (C 195)
being a leg fragment from a tripod pot.
Figure 10.8. Fragments
of chisel cut sheet copper
possibly used in trade,
from the Oudepost I
(OPI) excavation (C 258,
260, 262, 272, 285). Scale
in cm. (Photo C. Schrire)
Where the distribution of all fragments at Oudepost is
concerned, there are over three times as many by number
and weight in the fort than the lodge (Tables 10.2, 10.3),
suggesting that this may have been where metal sheets and
broken metal objects were reduced to small pieces. The
purpose of this might have been to patch and repair other
broken objects, or to create tokens for exchange in the VOCKhoekhoen copper trade. The Oudepost fragments resemble
those found in other colonial sites worldwide, including the
French Fort Pentagoet in Maine and the fort at the APVA
excavation at Jamestown, Virginia (Faulkner and Faulkner
1987; Kelso 2006: 179). A recent study of trace elements using inductively coupled-plasma atomic emission spectrometry (ICP-AES ) shows that most of the unalloyed copper
at Jamestown came from England and Sweden, with the
sheet brass emanating from Continental Europe (Hudgins
2005: 43). Furthermore, although some of the scraps were
undoubtedly traded, most of the material appears to have
been industrial waste that was generated in English factories
during the production of kettles, bowls, and lanterns, and
216
HI S TO R I C A L A RC HA E OLOGY I N SOU TH A FR I C A
shipped out to Virginia for processing with Virginian zinc to
produce brass (Hudgins 2005: 51-52; Kelso 2006: 178-8). In
any case, Virginia did not produce zinc and the venture was
abandoned together with the large heaps of scrap metal that
now lie buried alongside the failed crucibles (Hudgins 2005:
60-61; Kelso 2006: 181).
There is no evidence at present that the VOC shipped
industrial waste to the Cape, but at the same time, no Cape
collection has yet been systematically sourced. The early
trade copper carried to the Cape probably emanated from
European mines in Sweden, as well as from Germany and
Slovakia (Hudgins 2005: 38). The Fugger family played a
powerful role in the distribution of Central European copper
not only throughout Europe but also in Asia. Their wealth is
strikingly underscored by the discovery of an immense cargo
of hemispherical copper ingots stamped with the tripod seal
of the Fuggers in the cargo of a 16th century Portuguese ship
that was wrecked off the Namibian coast en route to purchase pepper in Asia (Jensen 2008; Pringle 2009: 25; Werz
2011). Whether shipments such as these ever came to the
VOC Cape is unknown, but Japanese copper is specified in
the 17th century VOC storehouses there (Leibbrandt 1902:
275). The VOC was deeply involved as a middle-man in the
Japanese copper trade in the 17th-18th centuries. It held a
monopoly in South Asia, China, the Middle East, Indonesia, and India, where it shipped raw copper from Japan to
factories for rendering into coinage. In fact, the importance
of Asian copper to the VOC was such that the Van Imhoff,
the Governor General in Batavia, referred to it as the “bride”
for whom the VOC danced (Shimada 2006, 2007).
What is known for the Cape is that a booming trade in
copper and brass began almost as soon as Europeans first
rounded the Cape in the late 15th century. Archival references document the presence of three kinds of copper (sometimes called ‘brass’)—native, European, and Asian. Native
copper was seen by Da Gama in 1497 as small copper beads
worn in the ears of the people of St Helena Bay (Axelson
1998: 24). There is mention in 1608 of a bracelet that the
Khoekhoen might have made themselves (Raven-Hart 1967:
39), and red copper bracelets, listed as being on the south
coast in 1595, might also have been locally traded (RavenHart 1967: 18). European metal might be denoted in a cattle
exchange for “…a little Brasse cut out of two or three old
Kettles” at the Cape (Raven-Hart 1967: 56, 59). An early
source specifies that thin pieces, two inches square cut out
of a kettle, were fashioned into arm rings (Raven-Hart 1967:
48). As the demand for a hard and shiny material grew, copper and iron became less valuable than brass (Raven-Hart
1967: 73). Brightness was paramount and scraps no longer
sufficed; natives demanded pieces as big as their cloaks, as
well as housewares like pans, basins, and skimmers (RavenHart 1967: 64-67, 70; Elphick 1985: 78). By 1615, the size
of sheet copper in an exchange had escalated to great pieces
“1 ½ feete square, or one foote at the least” (Raven-Hart
1967: 73). For what it’s worth, an early reference to a copper
bracelet traded at Table Bay in 1608 might actually denote
an Asian ring in that it came from a Dutch ship homebound
after a voyage to the East Indies (Raven-Hart 1967: 37-38),
and later sources specify Japanese copper in the VOC stores
(Leibbrandt 1902: 275).
Copper and brass functioned alongside alcohol and
tobacco as mainstays in a cattle trade that shaped the future course of indigenous-colonial relations until today
(see Elphick 1985; Elphick and Giliomee 1989; Heinrich
and Schrire 2011; Schrire 1995, 2009; see also Chapter 3).
It began in 1497 with the purchase of meat for metal from
the indigenous Khoekhoen (Axelson 1998: 23-25). Iron was
initially preferred by the Khoekhoen because of its resilience
when used as knives and weapons, but once the VOC settled
at the Cape, indigenous people preferred to trade for copper, which was soft and malleable and could be fashioned
into highly visible jewelry (Elphick 1985: 77, 166-67). The
early diaries document a wide variety of forms including
wire, staves, plates, bars, and beads (Leibbrandt 1901: 7,
38, 81,123, 193) as well as red plate and yellow bar copper
(ibid.: 123). So intimately was the cattle trade linked to copper that strings of copper beads, like glass beads and twists
of tobacco, were meted out as ‘quispelgreijn,’ an amalgam of
‘quispel’ (the tuft at the end of a cow’s tail), and ‘greijn’ (a
bead), denoting that the payment, whether in beads or tobacco, was measured as the length from the tip of the tail,
over the back, to the front of the bartered animal’s horns
(Leibbrandt 1901: 99; Thom 1958: 432-433; see also Karklins and Schrire 1991). Our most specific listing of the metal
trade comes from an 1676 inventory of the Castle warehouses, made several years after Oudepost I was manned, which
includes vessels like kettles, cooks’ pans and spoons, watering can (Leibbrandt 1902: 274), as well as “6264 lbs. copper,
viz.: 787 lbs plate copper, consisting of 651 lbs. small yellow
copper plates; 136 red do.; 2620 lbs. wire copper, e.g., 1891
lbs. yellow and 720 lbs. red; 262 lbs. old copper; 530 lbs.
chips; and 2065 Japan rings” (ibid.: 275). As though this
were not enough, the record also specifies two “large iron
scissors for cutting copper” (ibid.: 274).
These sources never document industrial waste copper
such as was shipped to Jamestown. The Oudepost copper
was always intended for trade, as can be seen in the first list
of provisions that were dispatched to the outpost and that
itemizes 140 lbs of copper (50 lbs sheet, 90 lbs wire) and
seven copper kettles (VOC 4004; see Schrire 1995: 94-95).
In 1672, 100 chains of copper beads were supplied to the
post (VOC 4008 f. 453), and a further 1000 copper beads
went off in October 1700 (VOC 4047 f. 539v). An inventory
made at the post in 1729, three years before its relocation,
listed a single copper kettle, suggesting that earlier vessels
had probably disappeared into the bottomless pit of the exchange system (Western Cape Archives and Records Service
LM 20: 121).
METAL S AND ASSOCIATED ARTIFACTS
Figure 10.9. Rolls of sheet lead
from the Oudepost I (OPI)
excavation (L 3a-c). Scale in cm.
(Photo C. Schrire)
Figure 10.10. Lead toys from the
Oudepost I (OPI) excavation (L
2a,b). Scale in cm.
(Photo C. Schrire)
217
Figure 10.12. Lead cutlery or flatware from the Oudepost I (OPI)
excavation (L 18, 17, 19, 22).
Scale in cm. (Photo C. Schrire)
Figure 10.13: Close-up of lead
handle from the Oudepost I
(OPI) excavation (L 19) inscribed
‘M C X.’ Scale in cm.
(Photo C. Schrire)
Figure 10.11. Lead discs from the
Oudepost I (OPI) excavation (L 6ad). Scale in cm. (Photo C. Schrire)
Lead
The lead remains from Oudepost include finished artifacts
and manufacturing debris (see catalog; see also Tables 10.1,
10.2). Raw material includes rolled and unrolled sheets (L3
(Figure 10.9), L4), as well as 133 lumps of lead slag (L16)
that vary in size from tiny splatters weighing less than a gram
to immense lumps, two of which weigh 604.2 gm (L 248)
and 1761.9 gm (L 249). Smelting is evident in 49 fragments
of bullet sprues (L 9) that emanate from the bullet molds
described later in this chapter. In addition there are two lids
(L1, L14) that possibly come from measures and that are
comparable to the pewter examples (P1, P2) listed earlier
(see Welz 1997: 30-31 Pl. 136). Two possible whirligigs,
a toy called ‘woer’ in Afrikaans and ‘snorrebot’ in Dutch (L
2a, b), are present ( Figure 10.10), as are a pierced disc (L7)
and four cut sections of discs (L 6) that might have served
as counters or weights (Figure 10.11). Rectangular fragments
(L10) are also present. There are two musket balls with drilled
holes (13a, b) that might have been fishing weights or decorative objects, and six folded oval pieces (L 15a-f) that might
be snaplocks (Geoffrey Egan 2007, pers. comm.) In addition,
there are six pieces of cutlery, including three spoons (L17,
18, 22; Figure10.12). An archival source notes the presence
of spoons at the post (LM20, 121) and the excavated objects
look as though they might have been locally made, but in the
absence of spoon molds, this cannot be verified. One handle
(L 19) that carries the initials ‘M C’ over an ‘X’ (Figure 10.13)
may represent the second personalised object from the site,
the first being another handle, Bz 16, which was described
earlier in this chapter. A single lead bead made from a narrow strip of sheet lead rolled into a cylinder is described elsewhere (Karlins and Schrire 1991: 67).
The largest numerical category of lead artifacts includes
1050 fragments of lead shot. Four types are present, including cast shot, made in a mold (892 fragments: 85%); cut
shot, made from strips or rolls for later rounding (42 fragments: 4%); Prince Rupert shot, made using arsenic (29:
2.8%); and dribble, made in a ladle containing dust (27:
2.6%). The cut strips in the artifact listing (L 8, 12) may have
been on their way to becoming cut shot.
We can make a guarded estimate of the size or caliber
of the firearms used here from the size of the shot. It is hard
to estimate precisely the size of the gun that fired each ball,
because shot expands after firing, as seen in a few patently
misshapen balls (L 13a, b). Bearing in mind that small shot
need not denote a tiny gun in that the bearer might cram
small shot into a large barrel, it would nevertheless seem
that there were at least four sizes of guns being used here,
namely, pistols (0.19-0.52”), carbines (0.53-0.65”), muskets (0.69-0.75”), and ramparts (0.83-0.92”). The vast majority of the shot is of the smallest, pistol size (0.19”) BBB
shot (E. H. H. 1961). This is consistent with the analysis
of the Oudepost gunflints, where 62.2% might have been
have been used in such pistols (Chapter 11; Table 11.5). It
also conforms with the associated bullet molds (discussed
in the next section), all of which have very small shot holes
(0.19-0.25”).
218
HI S TO R I C A L A RC HA E OLOGY I N SOU TH A FR I C A
Table 10.4. Oudepost I distribution of lead artifacts by Area and Level (numbers and weight)
Metal
Area
Level
Total (nos./ gms.)
%
Fort
Lodge
DP
NP
X
I
II
Lead artifacts (nos.)
117
119
2
21
35
129
72
259
19.8
Lead shot (nos.)
984
59
-
7
14
928
101
1050
80.2
Total
1101
178
2
28
48
1057
173
1309
100.0
3608.1
2962.9
120.7
638.5
358.9
4838.5
1373.6
7330.2
84.8
856.6
312.9
-
141,8
70.4
891.4
207.7
1311.3
15.2
4464.7
3275.8
120.7
780.3
429.3
5729.9
1581.3
8641.5
100.0
Lead artifacts (gms.)
Lead shot (gms.)
Total
The distribution of lead in the site mirrors that of copper
to some extent (Table 10.4). It predominates at the fort by
numbers, mainly due to a marked concentration of small
shot there, which constitutes 79% of the shot in the entire
site. The presence of several large melted pools in the lodge,
especially in Level I, tips the distribution by weight and
points to smelting in both the fort and lodge.
Further insight into the lead assemblage at Oudepost
may be found in the archival records. Lead was used for
paint, repairs, bullets, window glazing, bullets, and repairs.
It served as a base for ceramic glazes, and a monthly supply list of the Company dispatches 12 pounds of “lead…
to the potters” (ARA1684: 676; see Chapter 5). Archival records list the stocks of lead held at the Castle, as well as those
consigned to the post. The Castle warehouse lists of 1676
specify “22,077 lbs lead e.g. 10,967 lbs. ‘Schuyt’ lead, 11,110
lbs. flat do” and specify 3078 lbs flat lead and 400 lbs white
lead (Leibbrandt 1902: 275). These technical names probably refer to lead used for mending ships (schuyt is a small
flat bottomed ship) and for paint derived from corroding
lead into white lead. The requisitions for the Saldanha Bay
outpost, Oudepost I, between 1669 and 1729 include shipments weighing between 15 lbs and 100 lbs and specify 100
lbs of lead ‘pigs,’ or ingots, in 1701 (VOC 4047 f. 586), 30lbs
of flattened lead in 1701 (VOC 4047 F, 586), and 100 lbs to
mold bullets in 1669 (VOC 4004 f. 591v-592v).
Stone Molds
The collection of stone molds was originally examined by
Professor Donald Baird of Princeton University in 1988,
whose technical comments are incorporated here.
There are 18 fragments labelled ‘BM’ for ‘Bullet molds’
in the stone molds catalog. Some may not have been parts
of molds but are included here for want of a better category.
They are all made of fine grained shale or slate, ranging in
color from dark grey to grey/green, as well as one reddish example. All are broken, some more than others, but all have
distinguishing holes and grooves. Their source is not certain;
they may have been imported, but since similar rocks are
present at the Cape and many of the molds are roughly made,
they might have been produced at the Cape, if not on-site.
The most complete examples (B 1, 3) have holes cut
with a professional cherry or bulbar file, with the sprue
and ball apparently cut at the same time (Figures 10.14,
10.15). Many have irregular spacing, and incomplete holes
and wells, and in one case (BM 5) the wells are way out of
round, suggesting that the cherry wobbled in inexpert hands
(Figure 10.16).
Figure 10.14. Bullet mold from the Oudepost I (OPI)
excavation (BM 1), shown with associated shot and pulls.
Scale in cm. (Photo C. Schrire)
Figure 10.15. Bullet mold from the Oudepost I (OPI)
excavation (BM 3). Note that one hole is spiked with lead.
Scale in cm. (Photo C. Schrire)
Figure 10.16. Bullet mold from the
Oudepost I (OPI) excavation (BM
5). Peg hole visible. Scale in cm.
(Photo C. Schrire)
METAL S AND ASSOCIATED ARTIFACTS
The size of the shot produced in the unweathered holes
ranges from about 0.125» to 0.25», which is consistent with
the small shot and lead pulls (L 9) found on site. As noted
earlier, the size of shot that would have been produced in
these molds is way below the normal caliber (0.52») of pistol shot and was probably crammed into guns of various
sizes. The distribution pattern is not very clear, and seven
have no definite provenance. The remaining 11 are distributed mainly in the fort.
The presence of bullet molds is consistent with the
abundant evidence of lead smelting in this site, as well as
with many associated artifacts including rolls and sheets of
lead, bullet pulls, sprue, gun sights (B7, 8), snaplocks (L 15),
and numerous gunflints. The analysis of fauna points to a
plethora of wild animals that must have been taken with
guns (Cruz Uribe and Schrire 1991). Archival records attest
to the provision of lead, and the original supply list specifies
six bullet molds and 100 lbs of lead to mold bullets (VOC
4004). Exactly what these molds looked like is not known,
though a variety is listed in the stores of the Castle, including
“30 moulds, e.g. 8 metal bullet moulds, two for shot, and
22 single bullet moulds” (Leibbrandt 1902: 272), as well as
“two copper cartridge moulds” (ibid.: 273).
Conclusion
The metal remains at Oudepost include a number of raw materials. A cursory examination of the unconserved iron from
the site showed the presence of a wide variety of materiel including pulleys, pintles, locks, cannon balls, trowels, a mattock, and a shovel (Schrire 1995: 94). A future scholar might
well expand our grasp of the post with a detailed analysis
of those remains. The non-ferrous artifacts described in this
chapter include objects made elsewhere for use on the post,
as well as copper, lead, and stone molds that were used to
manufacture artifacts on site. The collections attest to artifact
repairs and maintenance and to shooting, hunting, fishing,
and trade, as well as to certain aspects of adornment like belts
and laces (see Chapter 9). The key escutcheons and initialled
items of flatware speak of personal and possibly private property. Reading and literacy is implied by the presence of book
(possibly Bible) hardware. Books were more common in early Cape households than in later 18th centuries ones (Worden
et al. 1998: 74), but it is nevertheless surprising to find such
remains on a distant outpost of what was already a distant
shore. Their presence confirms the well-known aphorism of
VOC employees as ‘soldiers of the pen,’ and is in keeping with
the fact that the post sent regular bulletins back to the Castle
(Schrire 1990: 13-15; Sleigh 1993: 411-468).
The small shot is particularly important where the
relative abundance of bird species in the site is concerned
(Schrire 1995: 107). Forty two species were identified according to their bones, with ostrich eggshell fragments raising the count to 43. The predominant species are Jackass
Penguin, Cape Gannet, Cape Cormorant, Greater and Lesser
219
Flamingo, Egyptian Goose, South African Shelduck, Cape
Teal, Cape Francolin, and Kelp Gull (Graham Avery 1989:
pers. comm.). The list contrasts that found on a precolonial
midden at Stofbergsfontein, about two kilometres away,
where only 13 species of birds appear (Robertshaw 1978:
144-146). A radiocarbon date of main horizon of the midden places it around 1500 years ago when a similar environment prevailed in the region (Robertshaw 1978: 143). This
suggests that although the occupants of both sites had access
to similar resources, the use of guns and small shot at Oudepost quadrupled the hunting success as seen in the relative
diversity of prey taken there.
The supply of materiél to the outpost raises two final issues. The copper trade, unlike the exchanges of consumable
like liquor and tobacco, involved a commodity that might
be hoarded and traded as capital (Elphick 1985: 166-67). It
is possible that it tipped the scales of wealth in indigenous
groups, allowing men to buy more cattle or get more wives.
The actual amount traded contrasts strongly with the number of metal artifacts recovered in our excavations, begging
the question of where it all ended up. Some may have been
transferred to the new post which was established in 1732,
but the rest was probably broadcast widely across the land,
scattered across the domain of the former pastoral Khoekhoen, and is waiting to be discovered in the archaeological
traces of the villages, huts, and caves that were swamped in
the bow wave of European settlement.
Acknowledgements
The identification of the shot and bullet molds discussed in
this chapter was made by the late Professor Donald Baird,
Geology Department, Princeton University. I owe him a
debt of gratitude for his identification of this collection as
well as its associated gunflints. I thank also Adam Heinrich
for help with the identification of the artifacts and the late
Geoffrey Egan for helping to identify the snaplocks.
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C H A P T E R 11
Analysis of Gunflints from VOC Sites at the Cape
Jeffrey J. Durst
Introduction
In a collection of 520 lithic samples from the combined excavations at the Castle of Good Hope and Oudepost I, 196
have been identified as being complete enough for cataloging as intact or fragmentary gunflints. The collection offers a
unique opportunity to examine gunflints brought to South
Africa primarily through the Dutch East India Company or
VOC trade beginning in the mid-17th and continuing into
the late 18th century. An examination of the collection identified samples that can be grouped into several categories
based primarily on distinguishing characteristics indicative
of their differing sources of manufacture.
Research conducted on the gunflints from these sites focused on three primary objectives. The first was to sort the
collection into various categories based on a detailed attribute analysis. Previous researchers (Hamilton and Emery
1988) had established acceptable methods for categorizing
gunflints based on size and morphological characteristics,
and where applicable, gunflints from the Cape sites were
categorized in a like manner to facilitate cross comparisons
(see catalog). The second aim was to interpret what the attribute analysis was indicating about the process of production, and what if anything, this might tell us about where
the gunflints were produced. Three previously analyzed
collections were selected as a comparative data set: the first
from the shipwreck of the French vessel La Belle (1687) recovered off the coast of Texas (Durst 2009: 20), the second
from the French site of Fort St. Louis established in 1685
along the Texas coast (ibid.: 20), and the third from the English site of Fort Frederica (1736-42) located on St Simon’s
Island off the coast of Georgia (Hamilton and Emery 1988:
28). All three collections are roughly contemporaneous with
the Cape sites, with comparable ratios of spall- to blade-type
gunflints. The third objective was to try and establish the
country of manufacture using methods that would be scientifically verifiable, as opposed to the intuitive methodologies
used in several previous efforts to source gunflints (Witthoft
1966; Hamilton and Emery 1988).
Historical Background
The earliest production of gunflints is poorly documented
and little is known of their production centers. The need
for gunflints arose around the 1530s with the invention of
the German snaphaunce (Brown 1980: 68), followed by the
Spanish snaplock, which was essentially a simplified version
of the original snaphaunce (Lavin 1965: 148).
The basic flintlock mechanism used at the Dutch sites of
the mid-17th to late 18th century appears to have been developed in France around 1630 (Held 1970: 83). By the mid1600s, its production was commonplace throughout much of
Europe. The newly refined and somewhat standardized mechanism demanded a more uniformly shaped flint for maximum performance (Lavin 1965: 159). While exact information regarding the early production of gunflints is very sparse,
it appears that a burgeoning cottage industry soon emerged to
fill the increasing demand for the uniformly shaped gunflints.
By 1661 the British Board of Ordnance was placing thousands
of orders, and by 1685 it was specifying particular sizes to be
used in pistols, carbines, and muskets (Forrest 1983: 481).
Jeffrey J. Durst, “Analysis of Gunflints from VOC Sites at the Cape“ in Historical Archaeology in South Africa: Material Culture of the Dutch East India
Company at the Cape, pp. 221–229. © 2014 Left Coast Press, Inc. All rights reserved.
221
222
H I S TO R I C A L A RC H A E OLOGY I N SOU T H A FR I C A
France and England were the two European countries
with major production during the late 17th century and
through the 18th century. While Brandon was the center of
English, blade-type production starting around the time of
the Napoleonic War (ca. 1790), earlier production of spalltype gunflints is believed to have been located elsewhere
in England, where “…some twenty wedge [i.e., spall-type]
manufacturing sites have been located in the south of England” (de Lotbiniere 1980: 155).
If the predominance of spall-type over blade-type gunflints on most 17th century colonial sites is any indicator
of market forces, it might be assumed that the nation that
produced this type of gunflint was the controlling force
at that time. After this time, and through most of the 18th
century, the French apparently dominated much of the
world market with their production of blade-type gunflints
(White 1976: 27). In addition, the discovery of large nodules of very pure flint buried in veins 20-40 ft below the
surface, just outside the village of Brandon, Sussex, allowed
the English to produce blade-type gunflints and regain
control of the market.
Previous Research
Witthoft published an early history of gunflint manufacture and distribution in which he proposed a four-stage
chronology of European gunflint production (1966). The
earliest stage gunflints, termed ‘Nordic,’ were produced
from Danish flint, extensively worked on both sides, and
were generally square or rectangular in shape (Witthoft
1966: 23-24). The second stage was attributed to Dutch
makers primarily on the basis of the range of color in the
source materials, and included ‘wedge shaped’ gunflints.
The third stage was attributed to French makers and was
characterized by ‘D-shaped’ or ‘horseshoe-shaped’ gunflints, manufactured using blade technology. The final
stage was assigned to the English, who used blade technology, but who, unlike the French, did not round the heels
of the gunflints.
Subsequent research has greatly modified several of
Witthoft’s conclusions. First, the ‘Nordic,’ bifacially worked
gunflints that he believed to have been made from Danish
source materials have since been recovered from numerous
sites in the Americas and are now believed to have been
made from locally procured sources, utilizing the same
technology evident on lithic tools made by Native Americans (Kent 1983: 28-29). Second, there is no evidence to
support Witthoft’s belief that the Dutch were actually producing gunflints themselves; instead, historical accounts
suggest that the Dutch were purchasing gunflints from any
available source and redistributing them for profit (Clarke
1935: 40; Forrest 1983: 51). Third, the ‘D-’, or ‘horseshoeshaped’ gunflints that were manufactured using blade tech-
nology are probably French, but the French also produced
blade-type gunflints that were not rounded at the heel. Finally, Witthoft’s assertion that the English blade-type gunflints were not rounded at the heel appears at this time to
be correct.
Analysis of Gunflints from VOC Sites
at the Cape
The Cape collections include gunflints from three sites. Two
come from locales in the Castle of Good Hope, namely the
Van der Stel Moat (M90) and the Old Granary (F2), and
the third comes from the VOC outpost at Oudepost I (see
Chapter 2). These sites overlap in time with the Moat (M90)
dating from about 1690-1740, the Old Granary (F2) series
from the late 17th-early 18th century, and Oudepost I from
1669-1732 (see Chapter 2 for details).
Fragments recognizable as gunflints or byproducts of
gunflint manufacture, include 151 from the M90, seven
from F2, and 362 from Oudepost I. Of these, 196 are listed
in our catalog. They display two primary manufacturing
techniques—spall-type and blade-type—with most being
attributed to European workshops where gunflints were being mass-produced. The majority of the raw materials used
to produce the gunflints from both the Moat and Oudepost
I sites appear to be identical, and the overall similarity of
production types suggests that both sets come from shipments imported to the Cape by the VOC. The exceptions
include seven gunflints from Oudepost I made of local silcrete. They appear to utilize a more expedient technology,
and are generally seen to lack the characteristics associated
with mass production. The presence of microscopic traces of
iron on four of these confirms their use as gunflints or strikea-lights (see Schrire and Deacon 1989: 108-109, Fig. 4).
Distribution
The majority of the gunflints recovered from the Cape sites
fit into Witthoft’s ‘Dutch, wedge shaped’ category, now commonly referred to as ‘spall-type’ (Table 11.1). The Van der
Stel Moat collection includes 42 (65.6%) spall-type and
22 (34.4%) blade-type gunflints (Figures 11.1, 11.2). There
are only two gunflints in the Old Granary collection. The
Oudepost I collection includes 72 (55.4%) spall-type and
58 (44.6%) specimens, produced using the blade technique
(Figures 11.3, 11.4).
The distribution of different types of gunflints within
the sites is shown in Tables 11.2, 11.3, and 11.4. Gunflints
and fragments are scattered throughout the Van der Stel
Moat (M90) deposit and are concentrated in the deepest
and richest level A2, with no apparent sequence of spalls
and blades (Table 11.2).
223
ANALYSIS OF GUNFL INTS
Table 11.1. Incidence of spall and blade-type gunflint types at Cape sites
Site
Gunflint Type
Spall
Total
Blade
Nos.
%
Nos.
%
42
65.6
22
34.4
64
100.0
Old Granary (F2)
1
50.0
1
50.0
2
100.0
Oudepost I (OPI)
72
55.4
58
44.6
130
100.0
Van der Stel Moat (M90)
Total
115
Nos.
81
%
196
Figure 11.3. French, blade-type gunflints from the
Oudepost I (OPI) excavation. Scale in cm. (Photo C.
Schrire)
Figure 11.1. French, blade-type gunflints
from the Castle Moat (M90) excavation.
Scale in cm. (Photo C. Schrire)
Figure 11.2. English, spall-type
gunflints from the Castle Moat
(M90) excavation. Scale in cm.
(Photo C. Schrire)
Figure 11.4. English, spall-type
gunflints from the Oudepost I
(OPI) excavation. Scale in cm.
(Photo C. Schrire)
Table 11.2. Van der Stel Moat (M90) distribution of gunflint types by Level
Unit
GunflintType
Spall
Nos.
Blade
%
Nos.
Total
Unclear
%
Nos.
%
Nos.
%
Fort
48
66.7
31
53.4
154
66.4
233
64.4
Lodge
18
25.0
20
34.5
59
25.4
97
26.8
DP (Dump)
-
-
1
1.7
3
1.3
4
1.1
NP (Non-Prov)
6
8.3
6
10.3
16
6.9
28
7.7
72
100.0
58
99.9
232
100.0
362
Total
%
19.9
16.0
64.1
100.0
224
H I S TO R I C A L A RC H A E OLOGY I N SOU T H A FR I C A
Table 11.3. Oudepost I (OPI) distribution of gunflint types by Unit
Unit
GunflintType
Spall
Nos.
Blade
%
Nos.
Total
Unclear
%
Nos.
%
Nos.
%
Fort
48
66.7
31
53.4
154
66.4
233
64.4
Lodge
18
25.0
20
34.5
59
25.4
97
26.8
DP (Dump)
-
-
1
1.7
3
1.3
4
1.1
NP (Non-Prov)
6
8.3
6
10.3
16
6.9
28
7.7
72
100.0
58
99.9
232
100.0
362
Total
%
19.9
16.0
64.1
100.0
Table 11.4. Oudepost I (OPI) distribution of gunflint types by Level
Level
Gunflint Type
Spall
Nos.
%
X
11
16.7
I
35
II
20
Total
66
%
20.0
Blade
Nos.
Total
Unclear
%
Nos.
3
5.9
24
53.0
32
62.7
30.3
16
31.4
100.0
51
100.0
15.5
%
Nos.
%
11.3
38
134
62.9
201
60.9
55
25.8
91
27.6
213
100.0
330
100.0
64.5
Gunflints found at Oudepost I are markedly concentrated in the Fort (Table 11.3) and in Level I (Table 11.4), but the
distribution of spall-types and blade-types is not correlated
with place (Table 11.3) or time (Table 11.4)
These conclusions are consistent with wider findings.
The spall-type gunflint was originally thought to pre-date
the blade-type gunflint (Witthoft 1966; Hamilton 1968;
White 1975). Contrary to this view, recent findings suggest
that both types occur in association at several sites, dating
earlier1 than 1685, so that the time of transition from spalltype production to blade-type production may be difficult
to pinpoint (Honerkamp and Harris 2005: 105). A number
of sites have produced evidence for the early production of
blade-type flints, including Chicoutimi, Québec, Canada,
where they were found in association with spall-type gunflints in a sealed context with a terminus post quem of 1663
(Blanchette 1975: 43). Likewise, at Fort Pentagoet, Maine
(1635-1674), 65% of the gunflints recovered were of the
blade-type (Faulkner 1986: 83), and early blade-type gun-
11.5
100.0
flints were also recovered from the sealed context of La Belle
shipwreck located off the Texas Gulf Coast, dating to 1687.
The occupation dates for Oudepost I (1669-1732) postdate the presumed date for the initial production of bladetype gunflints, so it is of no surprise to find that both spalltype and blade-type gunflints appear together here. In the
Castle Moat collection, the ratio of spalls to blades is 2:1 and
blades constitute 34% of the recognizable flints there (Table
11.2). At Oudepost, the ratio of spalls to blades is 1.2:1 and
blades make up 45% of the recognizable gunflints there
(Table 11.3). These figures may be compared to those from
other contemporaneous colonial sites in the New World. At
the lower end of the spectrum the La Belle (1687) shipwreck
collection contained only 7% blade-type gunflints, but the
associated terrestrial site of Fort St. Louis contained 32%
blade-type gunflints (Durst 2009). A recent examination by
the author of 482 specimens from the site of Fort Frederica
showed that blade-type flints constitute 33.4% of the collection, which corresponds more closely with the Cape sites.
ANALYSIS OF GUNFL INTS
Hamilton and Emery relate these size categories to their
use in different types of guns, saying:
Raw Material
The blade- and spall-type gunflints recovered from the two
South Africa sites were produced from different source materials. The spall-type gunflints have a broader spectrum of
colors, ranging from light grey to an almost black color
and from light tan to dark brown. Color has generally been
found to be of little assistance in sourcing gunflints to their
origins of production due to broad variations being noted
among samples from a common source (Luedtke 1992:
118). Conversely, chert samples of visually identical material have been discovered from different sources across
Western Europe and Great Britain. The blade-type gunflints
from the Cape collections resemble those from La Belle,
Fort St. Louis, and Fort Frederica, all of which were made
from a nearly translucent, honey-colored chert. The exception to this rule came from several dark grey flints from
La Belle; however, testing them in a solution of hydrogen
peroxide showed that they were the same honey-colored
chert as the examples from Fort St. Louis and, thus, that
they had acquired their present color due to exposure to
certain underwater contaminants for a period of 300 years
(Durst 2009: 22).
Musket flints are more than 34 mm from side to side.
Fowler or carbine flints are between 34 and 28 mm
from side to side. Trade gunflints are between 28 and
20 mm from side to side. Flints that are less than 20
mm can be from either trade guns or pistols (1988: 21).
Overriding this seemingly rigid categorization is a certain amount of overlap in the sizes of gunflints that would
make a particular type of flintlock mechanism fire adequately. In the Cape collections, only one gunflint (OPI-F2) was
larger than 34 mm and falls into Category 1. According to
Hamilton and Emery (1988: 20), “[f]lints larger than 34
mm are definitely military, but the probabilities are that
many flints in the upper ranges of categories 1 and 2 could
have served equally well in the French military locks of the
period.…” Category 2 contains nine gunflints from 28 to
33.9 mm in width, which would fit Hamilton and Emery’s
description of gunflints suitable for use in French military
locks and would overlap with use in fowlers as well. Forty
two gunflints fall into Category 3, which ranges from 25 to
27.9 mm in width. Hamilton and Emery suggest that flints
of this size would be best suited for use in trade guns. The
fourth category of gunflints, ranging from 18 to 24.9 mm in
width, contains 88 specimens. Those smaller than 20 mm
are possibly for use in pistols but might also have been used
in trade guns (20 to 28 mm), according to Hamilton and
Emery (1988: 21).
The size range for gunflints recovered from the Cape
sites may be compared with those from the La Belle (1687)
shipwreck and from Fort Frederica (Table 11.6). Whereas La
Belle has smaller flints similar to the pattern from the Cape
sites, Fort Frederica has a much larger percentage of larger
gunflints falling into Category 1 and Category 2, possibly
indicating that the English soldiers there were outfitted with
a higher percentage of ‘military’ arms.
Size
The gunflints from the Castle Moat and Oudepost I are
sorted in the catalogs into four size-related categories
based on parameters that delineate size according to width
as measured from side to side (Hamilton and Emery 1988:
20). Only those samples which retain enough of their original conformity were included in these calculations. Of the
196 samples from the two South Africa sites, only 140 were
deemed sufficiently intact to be measured (Table 11.5).
While the size of the gunflints in these collections offers
little evidence toward determining their source of production, it offers a certain degree of insight regarding the types
of arms that were most likely to correspond to these sizes.
Table 11.5. Distribution of size range for gunflints at Cape sites
Site
Gunflint Size (Category: Range in mm)
Cat. 1:
34 mm +
Nos.
Van der Stel Moat (M90)
%
Cat.2:
28-33.9 mm
Nos.
Cat. 3:
25-27.9 mm
Total
Cat. 4:
18-24.9 mm
%
Nos.
%
Nos.
%
Nos.
%
30.0
26
65.0
40
100.0
-
-
2
5.0
12
1
50.0
1
50.0
2
100.0
Oudepost I (OPI)
1
1.0
7
7.2
29
29.6
61
62.2
98
100.0
Total
1
0.7
9
6.4
42
30.0
88
62.9
140
100.0
Old Granary (F2)
225
226
H I S TO R I C A L A RC H A E OLOGY I N SOU T H A FR I C A
Table 11.6. Distribution of size range of gunflints from La Belle (1687) and Fort Frederica
Site
Gunflint Size (Category: Range in mm)
Cat. 1:
34 mm +
Nos.
La Belle (1687)
Fort Frederica
128
Cat.2:
28-33.9 mm
Cat. 3:
25-27.9 mm
Total
Cat. 4:
18-24.9 mm
%
Nos.
%
Nos.
%
Nos.
%
Nos.
%
-
95
29.9
132
41.5
91
28.6
318
100.0
29.5
205
47.1
61
14.0
41
9.4
435
100.0
Sourcing
A major problem in determining the various early sources
for the production of gunflints from Europe is the homogeneity of the source material across much of Great Britain and
Western Europe. The primary source for flint in this region
is the Upper Cretaceous chalk that covers roughly two-thirds
of southern England, extending northward across much of
northern East Anglia, Lincolnshire, and southern Yorkshire,
and even beyond, covering a large portion of central northern France as well as portions of Italy and other western European countries (Rockman et al. 2003).
Until very recently, the only means for assessing the
source of spall-type gunflints found in the New World was
to use criteria established by T. M. Hamilton and his various
coauthors. Hamilton’s criteria for gunflints from Fort Michilimackinac, an early 18th century French fort constructed
along the southern shore of the Straits of Mackinac in the
Great Lakes region of North America, and Fort Frederica
were based primarily on color, luster, quality of the rock,
and the presence or absence of pressure flaking along the
sides and heel of the gunflint (Hamilton and Emery 1988:
28). Thus, a French spall-type gunflint would be of good,
uniform quality, mined flint, mostly brownish but ranging in color from “…a gray through gray-brown to a light
brown, then through a darker brown and eventually merging into black” (Hamilton and Emery 1988: 30). In contrast, an English spall-type gunflint would be made from an
excellent black flint with no gloss, a minimum amount of
retouch around the edges, and large flake scars on the heel.
The main problem with the classification is that the specific
chert sources have not been verified.
This may now be addressed using Inductively-Coupled
Plasma Mass Spectrometry (ICP-MS). ICP-MS is a type of
mass spectrometry in which a sample material is atomized
and ionized in a charged argon gas torch in order to detect
almost the full suite of elements in the periodic table at concentrations as low as a few parts per million (Rockman et
al. 2003: 3). ICP-MS is not a new technology, but improvements to the process have only recently increased its applicability to the problem of sourcing lithic materials. The two
methods of preparing samples for testing are laser ablation
and acid digestion. Laser ablation (LA-ICP-MS) is virtually
nondestructive and is gaining in popularity over acid digestion, which results in the obliteration of the sample. Probably the most significant recent advance in LA-ICP-MS technology is the reduction of changes in the operating parameters, which previously fluctuated from one run to the next.
Additionally, LA-ICP-MS now has “the ability to reproduce
data generated by other bulk analytical techniques” (Speakman and Neff 2005: 4).
Researchers have gathered core materials from a broad
spectrum of potential source locations of gunflint production in France, England, and Denmark to serve as a data
base in identifying the origins of the gunflints from colonial
sites in the Americas. These core samples, along with 150
gunflints from the sites of La Belle shipwreck, Fort St. Louis,
and Fort Frederica, were sent to the Institute for Integrated
Research in Materials, Environments and Societies (IIRMES)
at California State University, Long Beach, for LA-ICP-MS
testing in order to determine if trace-element levels found
in the sample set would be high enough to identify potential European flint sources. Because the European source
samples submitted for testing were relatively few in number, the IIRMES lab included results from previously tested
European flint sources. French, British, and Danish source
areas were represented in substantial numbers, permitting a
reliable assessment of the range of chemical variation within
each area.
Historical documentation strongly suggests that France
and England are the two most likely sources for gunflints in
the VOC sites at the Cape of Good Hope. Twenty-four gunflints from Oudepost I were tested against this preexisting
data set to determine if there was any congruity in production source locations based predominantly on concentrations of uranium, yttrium, and cerium. The results are shown
in Figures 11.5 and 11.6 and in the catalog under ‘Source.’
The first group (Texas Group 1) includes only samples from
the site of Fort St. Louis and consists of gunflints believed
to have been produced at the site by the resident Spanish
soldiers or by nonmilitary residents, conceivably from core
material gathered locally. This group showed significantly
higher levels of uranium and, as suspected, displayed no
overlap with submitted European source materials or with
ANALYSIS OF GUNFL INTS
227
Figure 11.5: Bivariate plot
comparing trace element
levels of uranium and
yttrium in the samples.
(graph after Neff 2007)
Figure 11.6: Bivariate plot
comparing trace element
levels of uranium and cerium in the samples. (graph
after Neff 2007).
228
H I S TO R I C A L A RC H A E OLOGY I N SOU T H A FR I C A
the tested Oudepost I samples. In contrast to this, the South
African Group 1 contains five blade-type gunflints, all
blonde in color (OPI-F11, F18, F29, F33, F58) and six spalltype gunflints (OPI-F61, F62, F68, F73, F74, F95). The five
blonde specimens cluster within the ellipse that indicates
a 90% statistical likelihood of association with the French
quarry samples, and the trace element levels for these five
samples define a virtually identical range that may be attributed with a high level of confidence to France and perhaps
even to the specific quarry site in Meusnes (Neff 2005). The
six spall-type gunflints in Group 1 fall outside the ellipse
indicating association with the French quarry site. The two
blade-type specimens found in Group 2 (OPI-F26, F99) did
not group with the French quarry samples and were not visual matches with the blonde samples, and as they grouped
outside the French ICP ellipse, it is likely that they derive
from a different source. The spall-type gunflints found in
South Africa Group 2 from Oudepost I (OPI-F41, F46, F59,
F63, F65, F72, F82, F92, F93, F96, F101) cluster within a bivariate ellipse indicating a 90% likelihood that they derive
from a common source. As this group has higher yttrium
and cerium concentrations than most European quarry samples tested, it is suggested that they derive from a previously
untested source. Given their overlap with British quarries,
this is currently the closest match.
Conclusions
The gunflints recovered from the Castle and Oudepost I provide a unique opportunity to examine the sources for gunflints
used by the VOC to provision their outposts in South Africa.
They also offer the opportunity to explore the provisioning
strategies of the Dutch in South Africa, compared to strategies
used by other nations at colonial sites in the New World.
Where origins of the gunflints themselves are concerned,
Cape gunflints appear similar to those recovered from sites
in the New World. Given the level of mass production seen
in France and England, we suggest that either one, or possibly both, of these countries are the source of the gunflints
recovered at the South African sites.
Sufficient numbers of spall-type and blade-type gunflints are present to assert that the Dutch were probably
trading, either directly or indirectly, with both French and
English gunflint manufacturers. The fact that the LA-ICPMS results from several of the blade-type gunflints from the
two VOC sites matched identically the core material from
Meusnes, France, strongly suggests that the Dutch were obtaining and distributing gunflints from the primary French
supply source. Although all of the honey-colored gunflints
subjected to the LA-ICP-MS testing do not display an identical match to the source material in Meusnes, it is a reasonable assumption that most of the blade-type gunflints recovered from the two VOC sites were manufactured in France.
While many of the spall-type gunflints recovered from the
South Africa sites show a close match to core materials recovered from Britain, none shows an exact match to this material,
making it impossible to say for certain where the spall-type
gunflints recovered from the South Africa sites were manufactured. The fact that no spall-type gunflints from either the
South Africa sites or the sites used in this study for comparison
were manufactured from honey-colored chert matching that
from Meusnes suggests that, although the French may have
made spall-type flints elsewhere, the spall technique was not
used at Meusnes. Given that multiple spall-type production
sites are known to have existed in southern England, this may
be the source of the Cape series.
Archival lists were examined for evidence of the source
of gunflints stored in the Cape armory. Documentary evidence is very sparse, but a 1676 listing of material from the
old armory at the Cape does mention two 100 pound kegs,
one about three quarters full and the other about two thirds
full, of “Fatherland flints,” as well as a case, about half full,
of “Ceylon flints” (Leibbrandt 1902: 272). It is impossible
to say whether this attribution refers to place of production
or lading; however, the numbers can be calculated for the
Cape armory of 1676. Gunflints were usually dispensed
in small casks or “half barrels,” the smallest of which contained two thousand gunflints, the largest containing four
thousand (Wyatt 1870: 587). Historic documents also tell
us that casks of “sorts,” or mixed sizes, were also available
(Forrest 1983). The 100 pound kegs referred to in the Cape
of Good Hope inventory were the larger size barrels containing 4,000 gunflints. Thus we may calculate that there were
approximately 3,000 gunflints in the keg recorded as three
quarters full and 2,640 in the keg listed as two-thirds full.
The size of the case of “Ceylon” flints is not known.
The analysis of Cape gunflints links the VOC station
into a web of trade that enmeshed the Old World, the New
World, and the VOC realms in Asia. It also offers insight into
the provisioning strategies for VOC outposts situated in remote locations.
Acknowledgements
I would like to acknowledge Jay Blaine, an extremely wise,
avocational archeologist who made me first question the
production locations for ‘French’ gunflints.
Bibliography
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(Quebec). Historical Archaeology 9, 41–54.
Brown, M. L. (1980). Firearms in Colonial America 1492-1792.
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ANALYSIS OF GUNFL INTS
229
Clarke, R. (1935). The flint-knapping industry at Brandon.
Antiquity 9, 38–56.
Luedtke, B. (1997). Gunflints in the Northeast. Northeast Anthropology 57, 27-43.
De Lotbiniere, S. (1980). English gunflint making in the
seventeenth and eighteenth centuries. In T. M. Hamilton
(Ed.), Colonial Frontier Guns (pp. 154-160). Chadron, NE:
Fur Press.
Neff, H. (2005). LA-ICP-MS analysis of flint samples from
Texas, France and England. Manuscript. Austin, TX: Texas
Historical Commission.
Durst, J. J. (2009). Sourcing European-produced gunflints to their
country of manufacture. Historical Archaeology 43(2), 19-30.
Faulkner, A. (1986). Maintenance and fabrication at Fort
Pentagoet 1635–1654: Products of an Acadian Armorer’s
Workshop. Historical Archaeology 20(1), 63–94.
Forrest, A. J. (1983). Masters of Flint. Lavenham, Suffolk, UK:
Terence Dalton.
Hamilton, T. M. (1968). Review of “A History of Gunflints” by
John Witthoft. Historical Archaeology 2, 116–117.
Rockman, M., Glascock, M. & Baker, M. (2003). Learning the
lithic landscape: Trace element characterization of flint using ICP-MS and the recolonization of Great Britain at the
end of the last Ice Age. Paper Presented at the Society for
American Archaeology 68th Annual Meeting, Milwaukee,
WI.
Schrire, C. & Deacon, J. (1989). The indigenous artifacts from
Oudepost I, a colonial outpost of the VOC at Saldanha
Bay, Cape. South African Archaeological Bulletin 44, 105-13.
Speakman, R. J. & H. Neff. (Eds). (2005). Laser ablation-ICP-MS
in archaeological research. Albuquerque: University of New
Mexico Press.
Hamilton, T. M. & Emery, K. O. (1988). Eighteenth-century
gunflints from Fort Michilimackinac and other colonial
sites. Archaeological Completion Report Series, No. 13. Mackinac Island, MI: Mackinac Island State Park Commission.
White, S. W. (1975). On the origins of gunspalls. Historical
Archaeology 9, 65–73.
Held, R. (1970). The age of firearms: A pictorial history from the
invention of gunpowder to the advent of the modern breechloader. Northfield, IL: Gun Digest Co.
White, S. W. (1976). The French gunflint industries. (Unpublished M.A. dissertation). Department of Archaeology,
University of Calgary, Alberta, Canada.
Honerkamp, N. & Harris, N. (2005). Unfired Brandon gunflints from the Presidio Santa María de Galve, Pensacola,
Florida. Historical Archaeology 39(4), 95-111.
Witthoft, J. (1966). A history of gunflints. Pennsylvania Archaeologist 36(1&2), 12-49.
Kent, B. C. (1983). More on gunflints. Historical Archaeology
17(2), 27–40.
Lavin, J. D. (1965). History of Spanish Firearms. London: Herbert Jenkins.
Leibbrandt, H. C. V (1902). Précis of the archives of the Cape of
Good Hope. Journal, 1671-1674, 1676. Cape Town: W. A.
Richards & Sons.
Wyatt, J. (1870). On the manufacture of gun flints. In E. T. Stevens (Ed.), Flint chips: A guide to pre-historic archaeology as
illustrated by the collection in the Blackmore museum, Salisbury
(pp. 578-590). London: Bell and Daldy.
APPENDIX F
Objects Of Personal Adornment
Castle
Coat buttons
Metal
There are 97 buttons in the Moat collection, as follows:
Waistcoat buttons
Bone
13 mm
BT 1 Complete bone button with drilled shank. Convex
face with incised rim. Intact shank. D = 13 mm.
15 mm
Undecorated
BT 2 Complete bone button with drilled shank. Convex
undecorated face. Intact shank. Face is spalled. D = 15
mm.
18 mm
Undecorated
BT 8 Cast copper alloy button with flat surface. Drilled
shank cast with button. D = 18 mm.
32 mm
Undecorated
BT 9 Two-part button with convex surface. Two holes in
button back to release gas during brazing process. Dented and punctured. Shank missing. D = 32 mm.
Bone
Decorated
BT 3, 97 Complete bone buttons with drilled shank.
Convex faces with incised rims. Intact shanks. D = 15
mm.
19 mm
Undecorated
BT 10 Complete bone button with drilled shank. Convex undecorated face. Edge worn. Intact shank. D = 19
mm.
16 mm
Undecorated
BT 4 Complete bone button. Convex undecorated face.
Broken shank. D = 16 mm.
Decorated
BT 11 Complete bone button with drilled shank. Slightly convex face with incised rim. Intact shank. D = 19
mm.
Decorated
BT 5, 98 Complete bone buttons with drilled shanks.
Convex faces with incised rims. Intact shanks. D = 16
mm.
17 mm
Undecorated
BT 6 Complete bone button with drilled shank. Convex
undecorated face. Intact shank. D = 17 mm.
20 mm
Undecorated
BT 12, 100 Complete bone button with drilled shank.
Convex undecorated face. Broken shank. D = 20 mm.
BT 13 Bone button with drilled shank. Convex undecorated face. Edge broken on one side. Intact shank. D =
20 mm.
Decorated
BT 7, 99 Complete bone button with drilled shank.
Convex face with incised rim. Intact shank. D = 17 mm.
269
Decorated
BT 14 Complete bone button with drilled shank. Convex face with green coloring. Broken shank; threadwear
present. D = 20 mm.
270
H I S TO R I C A L A RC HA E OLOGY I N SOU T H A FR I C A
BT 15 Complete bone button with drilled shank. Convex face with incised rim. Intact shank. D = 20 mm.
21 mm
Undecorated
BT 16 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 21 mm.
BT 17 Bone button with drilled shank. Convex undecorated face. Intact shank; threadwear present. D = 21 mm.
Decorated
BT 18 Complete bone button with drilled shank. Convex face with incised rim. Intact shank. D = 21 mm.
22 mm
Undecorated
BT 19 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 22 mm.
BT 20 Complete bone button with drilled shank. Flat
face with tapered rim; undecorated face. Intact shank.
D = 22 mm.
BT 21 Bone button with drilled shank. Convex undecorated face. Intact shank. Edge broken. D = 22 mm.
Decorated
BT 22 Complete bone button with drilled shank. Convex face with incised rim. Intact shank. D = 22 mm.
23 mm
Undecorated
BT 23 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 23 mm.
Decorated
BT 24 Complete bone button with drilled shank. Convex face with incised rim. Broken shank; threadwear
present. D = 23 mm.
24 mm
Decorated
BT 25 Complete bone button with drilled shank. Convex face; incised rim. Broken shank. D = 24 mm.
25 mm
Undecorated
BT 26 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 25 mm.
Unidentified function
Bone
7 mm
Undecorated
BT 27 Complete bone button with drilled shank. Steeply pitched convex design. Broken shank. Possible sleeve
or shirt button. D = 7 mm.
8 mm
Decorated
BT 28 Complete bone button with drilled shank. Convex face with incised rim. Intact shank. D = 8 mm.
9 mm
Undecorated
BT 29, 30, 31, 32, 33, 34 Complete bone button with
drilled shank. Convex undecorated face. Intact shank.
D = 9 mm.
12 mm
Undecorated
BT 35 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 12 mm.
BT 36 Complete bone stud. Convex undecorated face.
Edge worn. Broken shank. D = 12 mm.
13 mm
Undecorated
BT 37 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 13 mm.
BT 38 Bone button fragment. Convex undecorated face.
Intact shank. D = 13 mm.
BT 39, 101 Complete bone button with drilled shank.
Convex undecorated face. Intact shank. D = 13 mm.
14 mm
Undecorated
BT 40 Complete bone button with drilled shank. Convex face. Intact shank. D = 14 mm.
BT 41 Complete bone button with drilled shank. Convex face. Intact shank. D = 14 mm.
BT 42-53 Complete bone button with drilled shank.
Convex undecorated face. Intact shank. D = 14 mm.
BT 54, 55 Bone button fragment. Convex undecorated
face. Broken shank. D = 14 mm.
BT 56 Complete bone button with drilled shank. Flat
undecorated face. Shank broken. D = 14 mm.
BT 57 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D =
14 mm.
Decorated
BT 58 Complete bone button with drilled shank.
Turned design on slightly convex face. Intact shank. Possible waistcoat button. D = 14 mm.
15 mm
Undecorated
BT 59-67 Complete bone button with drilled shank.
Convex undecorated face. Intact shank. D = 15 mm.
APP ENDIX F
BT 68-70 Bone button fragment. Convex undecorated
face. Intact shank. D = 15 mm.
BT 71 Complete bone button with drilled shank. Convex undecorated face. Broken shank. D = 15 mm.
BT 72 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 15 mm.
16 mm
Undecorated
BT 73 Complete bone button with drilled shank. Convex, steeply pitched undecorated face. Intact shank. Possible waistcoat button. D = 16 mm.
BT 74 Complete bone button with drilled shank. Convex undecorated face. Intact shank. Possible waistcoat
button. D = 16 mm.
BT 75-77 Complete bone button with drilled shank.
Convex undecorated face. Intact shank. D = 16 mm.
BT 78 Complete bone button with drilled shank. Convex undecorated face. Broken shank; threadwear present. D = 16 mm.
BT 79-83 Complete bone button with drilled shank.
Convex undecorated face. Intact shank. D = 16 mm.
BT 84 Bone button fragment. Convex undecorated face.
Intact shank. D = 16 mm.
Decorated
BT 85 Complete bone button with drilled shank. Convex face with incised rim. Intact shank. D = 16 mm.
17 mm
Undecorated
BT 86 Complete bone button with drilled shank. Convex undecorated face. Intact shank. Possible waistcoat
button. D = 17 mm.
BT 87 Bone button fragment. Convex undecorated face.
Intact shank. D = 17 mm.
BT 88 Complete bone button with drilled shank. Convex undecorated face. Intact shank. Edge broken. D =
17 mm.
18 mm
Undecorated
BT 89 Complete bone button with drilled shank. Convex undecorated face. Broken shank. D = 18 mm.
BT 90-91 Complete bone button with drilled shank.
Convex undecorated face. Intact shank. D = 18 mm.
BT 92 Bone button fragment. Convex undecorated face.
Intact shank. D = 18 mm.
BT 93 Bone button fragment. Convex undecorated face.
Broken shank. D = 18 mm.
271
19 mm
Undecorated
BT 94 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 19 mm.
Sew-through
BT 96 Bone button core. Central hole. Convex on one
side, flat on the other. D = 9 mm.
Van der Stel Moat.
Oudepost 1 (Opi)
Aglets
A 1 Aglet made of copper alloy sheet metal with straight
seam and rounded tip; crimped dimple at base to hold
lace fast. L = 23; W = 3.5 mm.
A 2 Aglet made of copper alloy sheet metal with straight
seam and rounded tip; crimped dimple at base to hold
lace fast. L = 20; W = 3.5 mm.
Buckles
Shoe Buckles
Whole Buckles
BK 1 Double framed annular shoe buckle made of copper
alloy with an inner band of nailheads and outer ring of
ovate beading. Decoration is imparted by the mold. Pin is
cast with the frame. Stud chape; no tongue. L = 39 mm; W
= 26 mm. Tongue = 31 mm x 11 mm. Stud = 7 mm.
BK 2 Double framed trapezoidal shoe buckle with beveled interior edge of copper alloy. Lobed on the outer
edge. Flared molded band applied to top of pin terminal. Pin is cast with the frame. Stud chape, no tongue.
L = 42 mm; W = 23 mm. Tongue = 27 x 9 mm. Stud =
8 mm.
Frames
Whole
BK 3 Whole rectangular framed copper alloy shoe buckle with rounded corners. Flared at buckle ends with a
notched design over the pin terminals. No chape. L = 44
mm; W = 31 mm.
BK 4 Whole rectangular framed copper alloy shoe buckle. Flared at ends on the interior with transverse lines
over the pin terminals. No chape. L = 30 mm; W = 23.
BK 5 Whole rectangular framed copper alloy shoe buckle. Sharply pitched beveled interior. No chape. L = 45
mm; W = 34 mm.
272
H I S TO R I C A L A RC H A E OLOGY I N SOU T H A FR I C A
Fragments
BK 6 Very corroded iron shoe buckle frame fragment.
Rectangular with rounded corners. L = 40; W = 27 mm.
BK 7 Very corroded iron shoe buckle frame fragment.
Rectangular with rounded corners. L = 29 mm; W = 24
mm.
BK 8 Corroded iron shoe buckle frame. Rectangular with
rounded corners. L = 39 mm; W = 27 mm.
BK 9 Openwork copper-alloy shoe buckle with interwoven ribbon design fragment. Sub rectangular in shape.
Bow at center of frame end. Beading along the inner and
outer edges and nailhead design along outer register. No
chape. Matches BK 10 and 11. L = 46 mm; W = 45 mm.
BK 10 Openwork copper-alloy shoe buckle with interwoven ribbon design fragment. Sub
rectangular in shape. Bow at center of frame end. Beading along the inner and outer edges and nailhead design
along outer register. No pin terminal present. Matches
BK 9 and 11. No chape. L = 51 mm; W = 30 mm.
BK 11 Openwork copper-alloy shoe buckle with interwoven ribbon design fragment. Sub rectangular in
shape. Bow at center of frame end. Beading along the
inner and outer edges and nailhead design along outer register. Frame edge only. No pin terminal present.
Matches BK 9 and 10. No chape. L = 51 mm; W = 16
mm.
BK 12 Rectangular copper alloy shoe buckle frame fragment. Simple design with flare and beveling in interior
edge. Both pin terminals present. No chape. L = 33 mm;
W = 32 mm.
BK 13 Rectangular copper alloy shoe buckle frame fragment. Sharply pitched beveled interior. Worn surface.
One pin terminal present. No chape. L = 33 mm; W =
32 mm.
BK 14 Double framed sub annular shoe buckle frame
fragment. One side and pin present. Undecorated and
worn surface. No chape. L = 34 mm; W = 27 mm.
BK 15 Sub rectangular copper alloy shoe buckle frame
with molded contour design with chevrons at center of
frame end. One complete side. Broken at pin terminal.
Matches BK 16. No chape. L = 24 mm; W = 31 mm.
BK 16 Sub rectangular copper alloy shoe buckle frame
with molded contour design with chevrons at center of
frame end. Broken at pin terminal. No chape. Matches
BK 15. L = 24 mm; W = 31 mm.
Chapes
BK 17 Very corroded iron shoe buckle chape roll. Cooking-pot shape with single tongue. L = 38, W = 35.
BK 18 Copper alloy shoe buckle chape roll. Cooking
pot shape with nodule base. Single tongue. Dutch style.
L = 31, W = 33.
BK 19 Copper alloy shoe buckle chape roll. Cooking
pot shape with single tongue. L = 22 mm; W = 27 mm.
BK 20 Copper alloy shoe buckle chape roll. Cooking
pot shape with single tongue. L = 28 mm; W = 29 mm.
BK 23 Copper alloy shoe buckle chape roll. Cooking
pot shape with single tongue. L = 32 mm; W = 26 mm.
Knee buckle
Whole
BK 21 Complete iron knee buckle. Anchor shaped
chape. Corrosion obscures any surface decoration, but
likely undecorated flat frame. L = 42 mm; W = 34 mm.
Strap buckle
Whole
BK 22 Complete strap buckle. Double framed sub
annular strap buckle. Decorative flare at sides of pin.
Tongue attached. Pin sleeve made of sheet metal. L = 41
mm; W = 30 mm.
Buttons
Sleeve buttons
Metal
Undecorated
BT 1 Copper alloy sleeve button. Undecorated. Convex
face. Broken flattened U-shaped shank. D = 10.5 mm.
Decorated
BT 2 Copper alloy sleeve button set with white stone.
Beaded border. Flattened U-shaped shank. Connecting
wire loop present. D = 12 mm.
BT 106 Copper alloy sleeve button set. Chained circle
decoration border. Central nipple with cast floral design. Flattened u-shaped shank. Connecting wire loop
present. D = 15 mm..
BT 107 Copper alloy sleeve button set. Convex decorated face with tiny dots on the outer rim. Flattened ushaped shank. Connecting wire loop present. D = 8 mm.
Waistcoat buttons
Metal
12 mm
Undecorated
BT 3 Cast copper alloy button with convex surface and
no decoration. Cast shank. D = 12 mm.
13 mm
Undecorated
BT 4 Cast copper alloy button with convex surface and
no decoration. Drilled eye. D = 13.5 mm.
AP PENDIX F
273
BT 5 Cast copper alloy button with convex surface and
no decoration. Shank missing. D = 13.5 mm.
BT 6 Cast copper alloy button with convex surface and
no decoration. Shank cast with button. D = 13.5 mm.
Decorated
BT 21 Complete bone button with drilled shank. Flat
face with bevelled edged. D = 14 mm.
15 mm
14 mm
Undecorated
BT 7 Fragment of cast copper alloy button with convex
surface and no decoration. Shank broken. D = 14 mm.
BT 8 Cast copper alloy button with convex surface and
no decoration. Shank cast with button. D = 14 mm.
BT 9 Cast copper alloy button with convex surface and
no decoration. Shank missing. D = 14 mm.
BT 10 Cast copper alloy button with flat surface and no
decoration. Brazed shank with broken eye. D = 14 mm.
BT 11 Cast copper alloy button with convex surface and
no decoration. Shank missing. D =
14.5 mm.
15 mm
Undecorated
BT 22 Complete bone button with drilled shank. Convex undecorated face. Shank intact. Very worn. D = 15
mm.
BT 23 Complete bone button with drilled shank. Convex undecorated face. Shank intact. D = 15 mm.
BT 24 Complete bone button with drilled shank. Convex undecorated face. Shank intact. Very worn. D = 15
mm.
BT 25 Complete bone button with drilled shank. Convex undecorated face with broken edge. Shank intact. D
= 15 mm.
15 mm
Undecorated
BT 12 Hollow cast copper alloy button fragment. Face
of two-part button. No decoration. D = 15 mm.
BT 13 Cast copper alloy button face of two-part brazed
button.. No decoration. D = 15 mm.
17 mm
Undecorated
BT 14 Cast copper alloy button with flat surface and no
decoration. Applied omega shank. D = 17 mm.
BT 15 Cast copper alloy button with convex surface and
no decoration. Drilled shank. D = 17.5 mm.
Bone
13 mm
Decorated
BT 16 Complete bone button with drilled shank. Concave face with border and nipple at center. Shank broken. D = 13.5 mm.
14 mm
Undecorated
BT 17 Complete bone button with drilled shank. Convex undecorated face. Shank intact. D = 14 mm.
BT 18 Complete bone button with drilled shank. Convex undecorated face. Shank detached. D = 14 mm.
BT 19 Complete bone button with drilled shank. Convex undecorated face. Shank detached. D = 14 mm.
BT 20 Complete bone button with drilled shank. Convex undecorated face. Shank intact. D = 14.5 mm.
Decorated
BT 26 Complete bone button with drilled shank. Concave face with incised border and nipple at center. Shank
intact. D = 15 mm.
16 mm
Undecorated
BT 27 Complete bone button with drilled shank. Convex undecorated face with broken edge. Shank intact. D
= 16 mm.
18 mm
Decorated
BT 28 Complete bone button with drilled shank. Flat
face with bevelled edged. Broken shank. D = 18 mm.
BT 29 Complete bone button with drilled shank. Convex face with incised edge. Intact shank. D = 18 mm.
Sew-through
15 mm
BT 30 Complete bone button core with center hole.
Domed shape. Irregular hole on surface. D = 15 mm.
BT 31 Bone button core with center hole. Broken edge.
Domed shape. D = 15 mm.
16 mm
BT 32 Bone button core with center hole. Broken edge.
Flat. D = 16 mm.
17 mm
BT 33 Bone sew-through button with four holes. Incised border on front surface to create softly rounded
border. D = 17.5 mm.
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H I S TO R I C A L A RC H A E OLOGY I N SOU T H A FR I C A
Coat buttons
Metal
14 mm
Decorated
BT 34 Hollow cast copper alloy button. Octagonal
shape and nipple decoration on domed button. Hole in
button back to release gas during casting process. Shank
missing. D = 14 mm.
15 mm
Decorated
BT 35 Cast copper alloy button with domed surface.
Crossed lines and nipple decoration. Shank broken D
= 15 mm.
17 mm
Decorated
BT 36 Cast copper alloy button with flat surface. Engraved flower design. Brazed alpha shank. D = 17.5 mm.
Undecorated
BT 37 Cast copper alloy button with flat surface.. Brazed
alpha shank. D = 17.5 mm.
18 mm
Decorated
BT 38 Stamped copper alloy button cover for two-part
stamped metal-covered button. Stamped oval design
with sunburst. Stamped textured surface. D = 18 mm.
BT 39 Hollow cast copper alloy button with domed surface. Nipple decoration. Brazed shank. Hole in button
back to release gas during casting process. D = 18.5 mm.
BT 40 Hollow cast copper alloy button with domed octagonal surface. Faceted with nipple decoration. Brazed
shank. Hole in button back to release gas during casting
process. D = 18.5 mm.
19 mm
Undecorated
BT 41 Cast copper alloy button with convex surface. Undecorated. Brazed alpha shank. D = 19 mm.
BT 42 Cast copper alloy button with convex surface.
Very poor condition. Brazed alpha shank. D = 19 mm.
23 mm
Undecorated
BT 43 Cast copper alloy button with flat surface. Undecorated. Cast shank with drilled eye. D = 23 mm.
28 mm
Undecorated
BT 44 . Cast copper alloy button back of two-piece
brazed button. Loop shank inserted into button back.
Crushed. D = 28 mm.
BT 45 Cast copper alloy button back of two-piece
brazed button. Loop shank inserted into button back
and brazed. Crushed. D = 28 mm.
BT 46 Cast copper alloy button front of two-piece
brazed button. Undecorated. Crushed. D = 28 mm.
BT 47 Cast copper alloy button with domed surface.
Undecorated. Loop shank inserted into button back and
brazed. Hole in button back to release gas during brazing process. D = 28.5 mm.
BT 48 Hollow cast copper alloy button with domed surface. Undecorated. Brazed alpha shank. Hole in button
back to release gas during casting process. D = 28.5 mm.
29 mm
Undecorated
BT 50 Hollow cast copper alloy button with domed surface. Undecorated. Brazed alpha shank. Hole in button
back to release gas during casting process. D = 29 mm.
30 mm
Undecorated
BT 51 Cast copper alloy button back of two-piece brazed
button. Brazed alpha shank. D = 30 mm.
BT 52 Cast copper alloy button back of two-piece
brazed button. Folded; edges bent. Inserted and brazed
loop shank. D = 30 mm.
32 mm
Undecorated
BT 54 Two-part brazed button with convex surface.
Loop shank inserted into button back and brazed. Hole
in button back to release gas during brazing process. D
= 32 mm.
Bone
19 mm
Undecorated
BT 55 Bone button fragment of shanked button. Onethird of domed button face. No shank. D = 19 mm.
BT56 Complete bone button with drilled shank. Convex undecorated face. Intact shank. D = 19 mm.
BT 57 Fragment of shanked bone button. Domed face.
No shank. D = 19 mm.
20 mm
Undecorated
BT 58 Complete bone button with drilled shank. Convex face. Intact shank. D = 20 mm.
BT 59 Complete bone button with drilled shank. Convex face. Intact shank. D = 20.5 mm.
AP PENDIX F
22 mm
Decorated
BT 60 Complete bone button with drilled shank. Flat
face with bevelled edged. D = 22 mm.
Sew-through
BT 61 Bone sew-through button with four holes. Assymetrically drilled. Softly rounded edge. D = 19.5 mm.
BT 62 Bone button core with center hole. Flat. D = 20
mm.
Unidentified function
Metal
9 mm
Undecorated
BT 63 Copper alloy button. Shank obscured by corrosion. Possible sleeve button. D = 9.5.
10 mm
Decorated
BT 64 Cast copper alloy button with nippled decoration. Surface otherwise smooth. Attached loop shank.
Possible waistcoat or doublet button. D = 10.5 mm.
11 mm
Undecorated
BT 65 Cast copper alloy button with smooth slightly
convex surface. Worn on opposite surfaces from use. Attached loop shank. Possible waistcoat button. D = 11
mm.
BT 66 Cast copper alloy button with convex undecorated surface. Alpha shank cast with button. Possible
waistcoat or doublet button. D = 11 mm.
BT 67 . Cast copper alloy button with convex undecorated surface. Attached loop shank cast with button. Possible waistcoat button. D = 11 mm.
BT 68 Cast copper alloy button with convex undecorated surface. Alpha shank cast with button. Possible
waistcoat button. D = 11 mm.
Decorated
BT 69 Cast copper alloy button with convex surface. Cast
rosette decoration. Attached loop shank cast with button.
Possible waistcoat or doublet button. D = 11 mm.
BT 70 Cast copper alloy button with convex surface.
Cast rosette decoration. Attached loop shank cast with
button. Possible waistcoat or doublet button. D = 11
mm.
BT 71 Cast copper alloy button with flat surface with
bevelled edge. Shank missing. Possible waistcoat button. D = 11.5 mm.
275
12 mm
Undecorated
BT 72 Cast copper alloy button with convex surface and
no decoration. Shank broken. Possible waistcoat button. D = 12 mm.
BT 73 Cast copper alloy button with convex surface and
no decoration. Loop shank cast with button. Possible
waistcoat button. D = 12 mm.
BT 74 Cast copper alloy button with convex surface and
no decoration. Shank missing. Possible waistcoat button. D = 12 mm.
BT 75 Hollow cast copper alloy button with convex surface and no decoration. Crushed. Two holes on reverse
product of casting. Shank missing. Possible waistcoat
button. D = 12 mm.
BT 76 Cast copper alloy button with convex surface.
Very poor condition. No shank. Possible waistcoat button. D = 12 mm.
13 mm
Undecorated
BT 77 Hollow cast copper alloy button with steeply
convex surface. Top portion of two-part button. Possible
waistcoat or doublet button. D = 13 mm.
BT 78 Cast copper alloy button with convex surface
and no decoration. Cast seam on back of button.
Shank cast with button; drilled eye. Possible waistcoat
button. D = 13 mm.
BT 79 Cast copper alloy button with convex surface and
no decoration. Shank cast with button; drilled eye. Possible waistcoat button. D = 13 mm.
BT 80 Cast copper alloy button with convex surface and
no decoration. Shank cast with button; drilled eye. Possible waistcoat button. D = 13 mm.
BT 81 Cast copper alloy button with convex surface and
no decoration. Shank cast with button; drilled eye. Cast
seam on back of button. Possible waistcoat button. D =
13 mm.
BT 82 Cast copper alloy button with convex surface and
no decoration. Button back corroded. Possible waistcoat
button. D = 13 mm.
BT 83 Cast copper alloy button with convex surface and
no decoration. Poor condition; edges broken. Possible
waistcoat button. D = 13 mm.
BT 84 Cast copper alloy button. Very poor condition.
Brazed omega shank. Possible waistcoat button. D =
13 mm.
BT 85 Hollow cast copper alloy button with convex
surface. Top portion of two-part button. Slightly dented
and surface scratched (from use?). Possible waistcoat
button.. D = 13 mm.
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H I S TO R I C A L A RC H A E OLOGY I N SOU T H A FR I C A
BT 86 Hollow cast copper alloy button. Back of twopart button. Shank missing. Possible waistcoat button.
D = 13 mm.
BT 87 Hollow cast copper alloy button. Front of convex
two-part button. Possible waistcoat button. D = 13 mm.
15 mm
Undecorated
BT 88 Fragment of face of two-part brazed button.
Crushed. D = 15 mm.
16 mm
Undecorated
BT 89 Fragment of cast copper alloy button. Broken. D
= 16 mm.
BT 90 Cast copper alloy button. Very poor condition.
Crushed. D = 16 mm.
BT 91 Cast copper alloy button face of two-part button.
No decoration; three holes puncture surface. D = 16 mm.
Decorated
BT 92 Cast copper alloy button face of two-piece
brazed button. Stamped sunburst decoration in center.
D = 16 mm.
17 mm
Decorated
BT 93 Cast copper alloy or iron button. Octagonal
shape. Drilled shank. Very poor condition. D = 17.
Eyes
BT 94 Button eye. L = 7 mm; H = 6 mm.
BT 95 Wire button eye with portion of button attached.
L = 6; W= 8.
BT 96 Wire button eye with portion of button attached.
L = 4; W= 4.
4.3 Shell
BT 101 Shell button with shank. Shank very worn. Undecorated. D = 10.
BT 102 Sew-through shell button with two holes. Double band engraved at edge. D = 11.
Miscellaneous
Metal
BT 103 Cast metal stud. Undecorated flat face. D =
13 mm.
BT 104 Cast copper alloy frog. Complete. Two buttons
connected by solid bar. L = 31; bar width = 4 mm; button diameter = 13.
BT 105 Cast copper alloy frog fragment. Button with
fragment of metal bar. Button diameter = 13.
Button mold
M1 One piece of three piece button mold. Mold has
two dimples to fit three pieces of mold together. Shank
for frog type of button carved into mold present on anterior surface. Hole for pouring molten metal present on
dorsal surface. Ventral surface exhibits smooth surface
from use. L = 66 mm; W = 17 mm.
Jewelry
Rings
R 1 Copper alloy ring with stone set in cabochon setting. Stone in poor condition; possible amythest. Hoop
tapers and is slightly convex. Bezel width = 7 mm; band
diameter = 27 mm.
R2 Copper alloy band. Flat surface with etched design
on either side. Possible wedding band. D = 27 mm; W
= 4 mm.
Bone
13 mm
Undecorated
BT 97-98 Complete bone buttons with drilled shanks.
Convex faces. D = 13 mm.
BT 99 Complete bone buttons with drilled shank. Convex face. D = 13 mm.
Sew-through
BT 100 Complete bone core with single hole. D = 13 mm.
Miscellaneous accessory
Chain
C1 Three links of chain made of round wire. Possible
watch or chatelaine chain. L = 26 mm.
ABOUT THE AUTHORS
Jeff Durst is the Project Director of the Ft. St. Louis Archaeological Project, the
South Texas Regional Archaeologist, and Project Reviewer
for the Texas Historical Commission. In recent years he has
conducted the analysis of over 1,200 gunflints related directly and indirectly to both the 17th century shipwreck La Belle
(1687) off the coast of Texas and the related terrestrial site of
Fort St. Louis located in Victoria County, Texas.
Adam Heinrich is a 2010 Ph.D. from Rutgers University who
works in historical archaeology and zooarchaeology. His research into material culture includes examining gravemarkers as reflections of consumerism across the colonial American landscape. His zooarchaeological research includes
advocating for more rigorous taphonomic perspectives to
historical faunal analyses as well as investigating animal
consumption in colonial and early post-colonial contexts.
Stacey Jordan received her doctorate from Rutgers University, conducting research at the University of Cape Town on
the local production and use of coarse earthenware. Her
publications on coarse earthenware have appeared in The
Getty Research Institute’s The Archaeology of Colonialism,
International Journal of Historical Archaeology, and Journal of
Archaeological Science. She has been involved in historical archaeological projects in South Africa, the United States, and
Puerto Rico, spanning from early colonial contact to the
recent past. She is currently a Cultural Resources Practice
Leader at AECOM.
Jane Klose has been analyzing ceramic assemblages excavated from historical archaeological sites throughout the
Western Cape since 1986. Her pioneering work on Asian
ceramics found in South Africa has led to international recognition. Klose is a member of the Oriental Ceramic Soci-
ety in London and has collaborated widely, especially with
colleagues with museums in the Netherlands and Oxford.
She is an Honorary Research Assistant in the Department of
Archaeology at the University of Cape Town, where she has
taught specialist courses on the identification and analysis
of excavated ceramics.
Carmel Schrire is a Distinguished Professor of Anthropology at Rutgers, The State University of New Jersey in New
Brunswick, NJ. She was educated at the University of Cape
Town and Cambridge University and received her doctorate at The Australian National University. She has done archaeological research in Australia and South Africa and has
specialized in the application of hunter-gatherer history and
ethnography the interpretation of the past. She is the author of The Alligator Rivers: Prehistory and Ecology in Western
Arnhem Land (1982) and the award winning Digging through
Darkness: Chronicles of an Archaeologist (1995).
Patricia Schwindinger is a graduate student of Nautical Archaeology at Texas A&M University. She completed her B.A.
at Rutgers, The State University of New Jersey in 2012. She
was awarded the Henry Rutgers Scholars Award for her Honors thesis reconstructing Oudepost I. She has also worked
with Dr. Craig Feibel to create a series of images mapping
the rise and fall of Lake Turkana, Kenya. She is interested in
graphics and their applications in archaeology.
Carolyn L. White holds the Mamie Kleberg Chair in Historic Preservation and is an associate professor in the Department of Anthropology at the University of Nevada, Reno.
Her work spans four centuries and currently focuses on daily
life in 1860s Aurora, Nevada, and on the built environment
of Black Rock City, the temporary city built for the Burning
Man festival.
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