No.*57J^'
48 BUREAU OF AMERICAN ETHNOLOGY
[BuU. 173pendix with the projectile points lettered
A
throughO and
large blades letteredfrom P
through V.The breakdown
into types of rock material is found in verticalcolumns
with totalsand
percentages at thebottom
of each column.The
percentage occurrences of pro- jectile-pointand
large blade typesfrom
each site were fashioned into bar graphson
millimetergraph
paper with 1 cm. ofgraph
equal to10 percent, for the experimental seriations.
It
was
necessary toform two
seriation charts.From my
previous experience with Virginia artifacts, as well as comparison with the results of others using thesame
techniques (Ford, 1949, pp. 35-37), aminimum
of 50 artifacts is considered the smallestsample which
will give reasonably accurate results.The primary
seriation, figure 4, isbased entirely
on
50 ormore
artifacts persample and
percentages are shown, for easy reference, as solid bars. In the second seriation, figure 5, the relative position of sites with large samples (solid bars) has been maintained,and
sites with small samples (20 to 48 artifacts)have
been inserted as diagonally hatched bars.In the text it has been found expedient to divide the exposition into three groups of sites.
The
firstgroup
to be described,and
at the top ofboth
seriation charts, belongs to the ceramic horizon.The
second
and
third groups belong totwo
separate, well-defined pre- ceramic horizons.Seriation of projectile points
and
large bladeswas
accomplished in the ceramic horizon first. (Although the stone-artifact collectionfrom
siteRM-4 was
large, this sitehad
to be left out of the seriations because of a mixture of the artifacts with siteE.M-4A.) There
aretwo
reasons for this. It is conceded that ceramic sites are generally later in time thannonceramic
sites, therefore the top ormost
recent period of the chart vs^as established. This temporal h3'pothesiswas
notproved by
stratigraphy in the survey area,and whether
it is of value can only be determinedby
the results of the seriation. Sec- ondly,from
previous studies definite trends of the pointsand
blades of the ceramic horizon of Virginia areknown and
couldbe
anticipated to appear in this region.The
trends in the previous study (Holland, 1955, fig. 23) were developedby
Small TriangularType
A,Medium
Triangular T3^pe B, TriangularType
C,Notched Stemmed Type
I, Parallel-sidedStemmed Type
L,and Large
Parallel -sidedStemmed Type
Q. Beginning in the preceramic horizon, the triangularformshave
a low level of occur- rence whileNotched Stemmed Type
I blossomedand
faded. ParaUel- sidedStemmed Type L
blossomed during the earl}' ceramic periodand
then faded, a trend followedby
its large counterpartType
Q.When Type L had
faded to 1 percentand
5 percent, TriangularType
C
reached apeak
of 30 percent to 56 percent.Type C
decreases atSITES PROJE
E F 6 H
PROJECTILE POINTS LARGE BLAO£S
AU
No*57^^'^^^'
CULTURAL PATTERNS,
VIRGINIA— ^HOLLAND 49
the top of the ceramic period to 10 percent or less
and Types B and A
are then the
most
popular types.With
these trends as a guide, five ceramic-bearing sites(AU-13, AU-11, AU-45, AU-31, and AU-5)
withlarge collectionsofpointsand
blades were seriated with increasing percentages of TriangularTypes
B and C and
decreasing percentages ofType
L. Itwas
gratifying to note a steady progressive increase inType B from
0.6 percent to 7.1 percentand
a similarthough more
uTegular increase inType C from
8.7 percent to 19.5 percent while the popularity of
Type L
declined progressivelyfrom
14.3 percent to 5.3 percent.Type
I did notshow any
trends.These
trends,when compared
with the trends developedfor Virginia as a
whole
(Holland, 1955, fig. 23), reveal thatwe
are dealing with the earliest section of the total ceramic horizon.The
laterperiods, represented
by
fadingofType C and
blossomingofTypes
A and
B,had
not been reachedby
these particular sites.In the other categories a steady increase is noted in
Type D from
8.1 percent to 17.6 percent, a point to be expected if the seriation is correct, for this type represents trianguloid rejects related to the
manufacture
of Triangular Points,Types
A, B,and
C.A
decreasingtrend is noted in
Type J from
6.2 percent to 2.7 percent, inType U
from
8.7 percent to 2.7 percent,and Type V from
22.5 percent to 3.5 percent.Trends
in the other categories are not readily apparent in a study of this ceramic horizon alone.If the hypothesis that
nonceramic
sites are older than ceramic sites is correct, the trends established during this early ceramic horizon are expected to be continuations of similar trendsfrom
thenonceramic
horizon. Therefore, bar graphs of
nonceramic
siteswere
arranged to continuedo^vnward and backward
in timeand
to develop the best increasingand
declining popularity of types in the ceramic horizon.The
first sixnonceramic
sites(AU-4, AU-41, AU-36, AU-43, HD-4, and AU-29)
to continue the trends (figs. 4and
5) constitute aunitand
will be described first.
Type
B, with a 2.1 percent occurrence, is present in theuppermost nonceramic
site only (fig. 4, siteAU-4). Types C and D
decreasesteadily
down
the sequencefrom
9.5 percentand
14.3 percent to 1.2 percentand
percent, respectively.Type L
maintains the greatestpopularity found in the lowest ceramic sites,
though somewhat
irregularly, at about a 12 percent level of occurrence.
An
excellenttrend has developed in
Type M which
steadOy increasesdown
thechart
from
4.1 percent to 10.2 percent. This is paralleled,though
irregularly,
by Type Q
withan
increasefrom
0.7 percent to 13.0percent.
Both
trends,begun
in the early ceramic horizon, bridge thetwo
horizons.Type
I,which shows an
irregular occurrence in the ceramic sequence, increasessomewhat
abruptly in thenonceramic
50 BUREAU OF AMERICAN ETHNOLOGY
[Bull. 178sequence
and
appears tobe
forming an increasing trend as older sites areadded
to the chart.There
is a small but noticeable increase in occurrence ofType K
in the lower part of thisnonceramic
site se- quence.Type J
continues thesame
percentage level of the lowermost ceramic sites.Types V and U,
instead of increasing, reverse their trendsand
decline through the sequence.Trends
in the other categories are not distinctive.These
sixnonceramic
sites, selected, as has been said above, solelyon
the basis of continuing the popularity trends ofpointsand
blades of ceramic horizon sites, were later found tohave
characteristicswhich
set
them
aside as a definite horizon. After the analysis of rockma-
terial (p. 65)
had
been completed, itwas
discovered that in these sites60 percent or
more
of the rock material used tomanufacture
the pro-jectile points
and
large bladeshad
been chert. Therefore theterm
"chert-using" has been applied to the complex.
The
fullmeaning
of this is discussed in detail in the section on relationship of sequences(see pp. 80-88).
Again
a set of sites(AU-17, RM-12, AU-23, AU-24, AU-9, AU-40, RM-1, AU-25, IlM-8, and RM-4B)
(fig. 4)were
selectedand
ar-ranged to continue the best trends established
by
theupper
11 sites.It
was
immediately evident that trends in the trianguloid series of points,Types
A, B, C,and D, had
long ago terminatedand
the pres- ence ofany
of these typesnow
appeared to be sporadic.Type D
occurring at site
AU-16, AU-24, AU-25, and RM-8
in 1.8 percent, 2,0 percent, 2.0 percent,and
2.7 percent, respectively, is too lowa per- centage occurrence to be ofany
significanceand
itmust
beremem-
bered that this type isan
unclassified trianguloidanyway,
a classifi- cation alwaysopen
to discussion.The
presence ofType B
atKM-1
canpossibly be the occurrenceofmaterials related to the adjoiningsite,
RM-lA, where
a higher percentage of chert materialsand
afew
sherds place this site in the ceramic horizon.Under
these circum- stances this low percentage occurrence ofType B
points, one point at both sitesAU-17 and RM-1
in a position in the sequencewhich
appears out of order, should not be considered as a violation of the basic trends ormeaning
of the seriated sequence.Types
I,M, and
Q,which had
blossomed at thebottom
of thefirst six nonceramic site sequences, maintain tlieir popularity in the
upper
part of this 11-site sequence, but gradually fade at thebottom
to 4.5 percent, 4.5 percent,
and
percent respectively.Type L main-
tains its
maximum
popularityand
Tj^pes F,H, and
J, whileshowing
no
increasing or decreasing trends, are presenton
all sites inlow
percentages.The most
striking changes areshown
in the large blade categories,Types U and
V.These
suddenly blossom and, throughoutNo^St^"^"^"
cultural patterns,
VIRGINIA— HOLLAND 51
the 11-site sequence, hold a steady popularity unequaled in the sitesabove.
These
lowest 11 sites, like theupper
6nonceramic
sites, have,on
consideration of the type of rock material, another characteristic
which
establishesthem
as a separate preceramic complex.The
de-tails of this study follow in the section
on
relationship of sequences(seepp.80-81),but it is pertinent to
mention
thatfor thesesitesquartz-ite
was
themost
popular rockmaterial used tomanufacture
the pointsand
blades.No
less than 74.6 percent of each site aremade
of this material; for this reason thecomplex
hasbeen named
"quartzite- using."Since
we have
viewed the seriation in three separate units, itwiU
be well to view it as awhole
to see if the three horizonshave
contin-uous
trends (figs. 4and
5). This appears to be true.Medium
Tri- angularType B
appears in the "chert-using" horizonand
increases steadily through timeon
into the ceramic horizon. TriangularType
C and Crude
TriangularType D
begin atan
earlier time leveland
steadily increase in popularity to the top of the chart. This paral- lelism
between Type D and
the other triangular types is so striking that it adds weight to the probability thatCrude
TriangularType
D
is essentially nothingmore
thanan
abortive effort, a reject, in themanufacture
of triangular-type points. PentagonalType
E,Notched Base Type
G,Large
Side-notchedType
R,Large
PointedBase Type S and Large
TriangularBlade Type T
occur sporadicallyand
in small percentages throughout the sequence.Viewed from bottom
to top.Lanceolate
Type F
has a small but steadieroccurrence in the "quartz- ite-using" horizon, being less important in the ceramic horizon at the top of the sequence.Notched Stemmed Type
I, Side-notchedType M,
Parallel-sidedStemmed Type
L,and Large
Parallel-sidedStemmed Type Q have
theirmaximum
occurrence in the preceramichorizons at a point
where
the "quartzite-using"and
"chert-using"complexes overlap.
As
willbe
recalledType N
includes unclassified projectile-point fragments ofTypes A
through O.A
similar unclassified category,Type
V,had
been established for the blades. Itwas
felt that these groupingswere
essential to the true understanding of the differencesbetween
frequency of bladesand
smaller projectile points, for somany
fragmentswere
largeenough
togroup
into one of these cate- gories but too small to subdivide into one of the types basedon
total shape.
Examination
of the seriation, figures 4and
5,shows
thatType N
ismost abundant
throughout the ceramicand
the"chert-using" complexes (i. e., the
upper
part of the sequence) whereasType V
ismost common
in the "quartzite-using" complex.These two
unclassified categories indicatehow
clearly the shift oc-52
"BUREAU OF AMERICAN ETHNOLOGY
[Bull.173 cursfrom
apredominance
of large blades in the lower part of the sequence to a greater popularity of smaller chipped tools in theupper
or later part of the sequence.Using
the trends establishedby
sites with a large sample, itwas
also possible to place all sites
but
one w4th small collections of 20 to 48 artifacts in theseriationand
maintainthe trends already established(fig. 5).
The
single exception,AU-30,
at NaturalChimneys
sampleshad
not been collectedby
the writer butwas
material exhibitedfrom
tunnelsand
caves in the base of theChimneys. Not
only are the trends of the various types in the sequence maintainedby
using these sites with smaller collections, but thehomogeneity
of the character-istics of the various culture horizons are preserved.
The
inclusion of these sites expands the scope of the sequence,smooths
outsome
ofthe trends of the various point
and
blade types,and
also permits assessment of the position ofmore
sites in the survey areafrom
both the ceramicand
preceramic horizons.The
justification for the use of these sites with small samples,sometimes
causing the percentages to be slightly overloaded, can be demonstratedby
picking out afew
sitesand showing how
they can only fit into one particular part of the sequence eventhough some
of the individual barson
the gi-aph appear slightly askew.The
placing ofsiteAU-35-V-1
near theupper
part of the pointand
blade sequence (fig. 5) is justified for several reasons.Types B and
C
aremore
popular in theupper
part of the chart.The
limited percentage ofany
bladesfrom
this site definitely rules it out of the lower part of the seriation. Thus, eventhough
the percentage ofType
C, with 50 percent, appears lughly exaggeratedowing
to the small sample, this overextended percentage bar does not interferewith the general position of the site or the trends
which
siteAU-35- V-1
helps fill out forTypes
B,D, and M.
Similar situations are demonstrable with such sites as
RM-6
with39,
RM-3
with 31,AU-38
with 45,and RB-6
with 23 specimens.Each
fits roughly into the sequence according to noticeable absences of significant pointand
blade typesand
takes a specific posi- tion as a result of a continuation of the trends establishedby
the siteswith the larger samples.
To summarize
briefly the results of the seriation of the pointsand
bladesfrom
the sites without recourse to the analysis of the pottery or rock materials, thesame
general trends established for the entire State of Virginia (Holland, 1955, fig. 23) repeat themselves in the limited area of the survey. This seriated sequence of northwestern Virginia, however,smooths
outsome
of therough
spots in the original studyand
tends to give amore
gradual curve to each of the types as a result of having availablemore
sites closely related in timefrom
a limitedSITES
A B E F (
in
4)
ua
o
I
AU- AU- AU- AU- AU- AU- AU- AU- AU- AU- AU - AU- AU- RB- AU- HO- AU- HD - AU- AU- RM - RM- AU- AU - AU - AU - AU- AU- RM- RM- RM- AU - AU - AU- RM RM RM
35-V-2
5
-35-V-l -45
-31 -21 -46
-
II
- 13
- 42
- 4 -41
- 36
-6
-43 -4 -29 -7 -18
-17 -12 -
I
-23 -16 -24
-I
-9 -40 -6
-3 - 7 -33
-25
- 38
-II -8
- 4B
Zl 7-r-A '/////\
23
//////////
\ / / //\/ / / / A
// / / A
/ / /\
zm
^m-imei // / / / /n
/ / / A
a
23
CM r-
t- 2:2
Figure 5.
—
Secondary seriation cPROJECTILE POINTS
LARGE BLADES
AU- 35-V-2 AU-5 AU-35-V-I AU-45 AU-31 AU-21 AU-46 AU-II AU-13
AU-42 AU-4 AU-41 AU-36 RB-6 AU-43 HD-4
AU-29 HD-7 AU-IB AU-ir RM-12 RM-I AU-23 AU-16 AU -24 AU-I AU-9 AU-40 RM-6 RM-3
RM-7 AU-33 AU-25 AU- 38 RM-II
RM-S
RM-4e
>////r / / /t\
/1// /T-\
E
No*57]^'^^^"
CULTURAL PATTERNS,
VIRGINIA— ^HOLLAND 53
geographical area.The
strong emphasison
large blade types in the"quartzite-using"
complex
of the preceramic horizon, the lowest part of the sequence, with the absence of trianguloid forms is of definiteimportance in helping to define the cultural
complex
of this periodand
provesan
important timemarker
in the sequence.Throughout
time the popularity of blades declines in favor of the smaller projectile points of various shapes, each withminor
fluctuations of its own.In thelaterpart of the sequence, the increased popularity of triangular points.
Types B and
C, with theirrelated category ofprobable rejects,Type D,
is a pointwhich
is ofsome
significanceand
can be furtherexpanded
after those sites with potteryhave
been seriated independ- ently of this sequence. In short, it appears as if another demonstra-tion has been