University of Tennessee, Knoxville TRACE: Tennessee Research and Creative Exchange

Masters Theses Graduate School

5-1991

Nailing Down the Pattern in Historical Archaeology

Amy L. Young University of Tennessee - Knoxville

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Recommended Citation Young, Amy L., "Nailing Down the Pattern in Historical Archaeology. " Master's Thesis, University of Tennessee, 1991. https://trace.tennessee.edu/utk_gradthes/1240

This Thesis is brought to you for free and open access by the Graduate School at TRACE: Tennessee Research and Creative Exchange. It has been accepted for inclusion in Masters Theses by an authorized administrator of TRACE: Tennessee Research and Creative Exchange. For more information, please contact [email protected]. To the Graduate Council:

I am submitting herewith a thesis written by Amy L. Young entitled "Nailing Down the Pattern in Historical Archaeology." I have examined the final electronic copy of this thesis for form and content and recommend that it be accepted in partial fulfillment of the equirr ements for the degree of Master of Arts, with a major in Anthropology.

Charles H. Faulkner, Major Professor

We have read this thesis and recommend its acceptance:

Walter Klippel, Lyle Konigsberg, Gerald Schroedl

Accepted for the Council: Carolyn R. Hodges

Vice Provost and Dean of the Graduate School

(Original signatures are on file with official studentecor r ds.) To the G�aduate Council:

I am submitting he�ewlth a thesis w�ltten by Amy L. Young entitled "Nailing Down the Patte�n in Histo�lcal A�chaeo 1 ogy. •• I have examined the fina 1 copy of this thesis fo� fo�m and content and �ecommend that lt be accepted in pa�tlal fulfillment of the �equl�ements fo� the deg�ee Maste� of A�ts. with a maJo� ln Anth�opology.

Cha�les H. Faulkne�. Majo� P�ofesso�

We have �ead this thesis and �ecommend lts acceptance:

Accepted fo� the Council:

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for a Master's degree at The University of Tennessee, Knoxvil le, I agree

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NAILING DOWN THE PATT ERN IN HISTORICAL ARCHAEOLOGY

A Thesis

Presented for the

Master of Arts

Degree

The Un l verslty of Tennessee , Knoxv ille

Amy L. Young

May 1991 ACKNOWLEDGEM ENTS

I would like to thank my maJor professor , Dr . Char les H. Faulkner

for hls guidance and pat ience . I wou ld also like to thank the other members of the commi ttee , Dr . Gerald Schroedl, Dr. Wal ter Kl ippel , and

Dr . Ly le Kon i gsberg for the ir thoughtful suggest ions. I wou ld like to

express my grat i tude to Ph i l, for help and good humor In the field, and

for reading and re-read ing this manuscr ipt. My grati tude also goes to my

sons, Chr istopher and Nichol as for the ir cheers on encouragemen t, and to

Hank McKe lway for cr itical comments and he lp with the figures In the

text . I also thank Spence Meyers for his sk ills. I wou ld like

to thank Dr . Robert L. Ke l ly for hls Invaluable advice. The Ol iver nai ls used ln th ls thesis were recovered dur ing excavations of three sites on

the Pe l lissippi Parkway Ex tension, Knox County, Tennessee . The Ol iver slte Invest igat ions were funded by the Federal Highway Admln lstratlon and

Tennessee Department of Transpor tat ion .

il ABSTRACT

Th is study suggests that middl e-range research has an Impor tant rol e to play In historical archaeology . Th ree mode ls are devel oped for interpreting nai l assemb lages from 19th and 20 th century contexts. Al l models are based upon ethnoarchaeology , experimental archaeology, and direct observations of nai ls operat ing ln the ir systemic contexts. Th e first mode l al lows for discriminat ing between a nai l assemb lage from an ephemeral structure slte and an assemb lage from a dump si te. Th e second mode l enables the archaeologist to ident ify wh ether a bu ilding was Jog, timber frame , or bal loon frame . The th ird mode l Is designed to discr iminate between nai l assemb lages wh ere structures were torn down to recycle the and structures dismantled and materials discarded.

These mode ls are used to interpret nai ls from two East Tennessee archaeological si tes. It is concl uded that such middle-range research ls an effect ive aid for Interpret ing historic site format ion processes .

111 TABLE OF CONTENTS

Chapter Page

I. Middle-range Theory ln Historical Archaeol ogy 1

II. Dump Sites and Bu lldlng Si tes 16

III. Log, Timber Frame , and Bal loon Frame Structures 26

IV. Recyc ling and Discarding Behav ior 51

V. Two Archaeological Examp les: The Glbbs House Slte and the Ol iver Si te 61

VI . Conc lusions 78

References Ci ted 82

VIta 89

lv LIST OF TABLES

Table Page

2.1 Observed and Expected Frequencies of Unaltered . Pu tted

, and Cl inched Nal ls from Modern Dump s 21

2.2 Observed and Expected Frequenc ies of Una l tered . Pu lled (p), and Cl i nched Na l ls from Archaeological Bu lldlng Sites 22

2.3 Observed and Expected Frequenc ies of Unal tered , Pu tt ed

. and Cl inched Nal ls for the Construction Sites and Ethnoarchaeotoglcat Dump Sites 23

3.1 Nal ls from the Log Bu ildings 32

3.2 Na l ls from the Timber Frame Structures 34

3.3 Na l ls from the Ba l loon Frame Structures 36

3.4 Summary of Percentages of Nai l Lengths From Al l Bu ildings Surveyed 37

3.5 Conversions to Na l ls Per Foot For Each Functional Category For Eight Bu ildings Surveyed 41

3.6 Na l ls from the Garner Si te Outbui lding 44

3.7 Frequencies of Garner Na l ls ln Functional Categor ies Compared to Log , Timber , and Bal loon Frame Models 47

3.8 Nal ls from Locust Grove Cabi n 48

3.9 Frequenc ies of Locust Grove Na l ls ln Functional Categor ies 48

4.1 Mean He ights for Slx. Eight , and Ten Penny Nal ls 54

4.2 Mean Curve He ights for 1/2 and 1 Inch Board Th i ckness 55

v 4.3 Mean Curve Heights for Pul ling Method 55

4.4 General Linear Models Procedures 56

4.5 Mean He ights for Pennywe ight by Board Th ickness 57

4.6 Dlstrlbutlon of Na l ls ln AdJ usted Curve Height Categor ies for the Recycled and Discard Sites 59

5.1 Gibbs Nal ls versus Construction Sites 66

5.2 Gibbs Nal ls versus Dump Sltes 66

5.3 Frequencies of Na l ls In AdJ usted Curve He ight Categor ies for the Gibbs Assemb lage and for a Recycled Assemb lage 69

5.4 Frequencies of Unal tered , Pulled (p), and Cl i nched Nal ls of Ol iver and Construction Sites 71

5.5 Frequenc ies In Funct iona l Categor ies for Ol iver Nail Assemb lage and Log , Timber Frame , and Bal loon Frame Mode ls with Tin 72

5.6 Fr equencies In Funct iona l Categor ies for Ol iver Na il Assemb lage and Timber Frame and Bal loon Frame Mode ls without Roof ing Na l ls 74

5.7 Frequenc ies of Nal ls In AdJ usted Curve He ight Categor ies for the Ol iver Assemb lage and for a Recyc led Assemb lage 75

vl LIST OF FIGURES

Figures Page

3.1 Mode l for a 16 x 16 Foot Log Structure wl th Shake or Tln Roof 38

3.2 Mode l for a 16 x 16 Foot Timber Frame Structure wl th Shake or Tln Roof 39

3.3 Mode l for a 16 x 16 Foot Bal l oon Frame Structure wlth Shake or Tin Roof 40

3.4 Dlstrlbutlon of Nal ls ln Length Categor ies for the Garner Assemblage 45

3.5 Distribution of Nal ls ln Length Categor ies for the Garner Assemb lage Compared wi th Dlstrlbutlon for a Timber Frame Mode l 46

3.6 Distribution of Na lls In Length Categor ies for the Locust Grove Assemblage Compared wi th Dlstrlbutlon for a Log Structure Mode l 50

5.1 Dlstrlbutlon of Na lls In Un its ln Area D at the Gibbs House Slte 64

5.2 Frequencies of Nail Lengths from the Gibbs House Nal ls Compared with Al l Mode ls 68

5.3 Distribution of Na l ls ln Length Categor ies of Ol iver Nal ls and Log, Timber Frame , and Ba l loon Frame Mode ls wi th Tln Roof 73

vll CHAPTER I

MIDDLE-RANGE TH EORY IN HISTOR ICAL ARCHAEOLOGY

Introduct ion

Binford descr ibed the archaeological record as a static document of events of the past ex isting in the present (Binford 1981 , 1983 ,

1989 ). Th e goa l of middl e-range research Is to link the stat ic archaeological record wi th the dynamic processes that formed It. In this thesis, dynamics wh ich produce archaeological nail assemblages are Invest igated and descr ibed, and rel evant attributes uncovered In these Invest igat ions are used to make Inferences about the past .

Three methods have been devel oped to do this. First , using nai ls recovered from ethnoarchaeologlcal si tes, di fferences between assemblages from per ipheral dump sites and from ephemeral structure sites are ascertained, so that these two types of si tes, both characteri zed by high frequenc ies of nai ls, can be Identified.

Second, nail length frequencies In standing structures are emp loyed to develop models to Identify archaeological na il assemblages from log, timber frame , or bal loon frame bu ildings . Th ird, data from exper iments and archaeological sites are used to Ident ify pattern ing

In nai l assemb lages characterist ic of structures torn down to recyc le or structures dismant led and materials discarded. Final ly usi ng these techniques, nai ls recovered from two archaeological si tes In

Knox County, Tennessee, the Gibbs House si te and the Ol iver si te , are analyzed and Interpreted .

1 Middle-range research Is general ly poorl y developed In historical archaeology , and as a result, It Is di fficult to re late •Quest ions that Count• CHonerkamp 1988; Deagan 1988; Cleland 1988; Sou th 1988a;

Leone 1988> Ce.g. slavery, impe rial ism, class format ion, cul tural syncret ism, consumer choice behavior, acculturation, envi ronmental degradat ion, and others> to the stat ic archaeological record.

Histori cal archaeologists lack the coherent general and middl e-range theory to do it. As desc ri bed by Honerkamp <1988:5> , historical archaeology seems prematurely 1to have entered a 'norma l sc ience' ph ase• , mean ing that research has become highly routinized. Cleland

<1988:14> agrees that historical archaeologists need to develop

•organ ized and coherent theory• so that we can move beyond •s tack ing fact upon facta and begin to synthesize by flttlng fact to fact . If middl e-range research Is to enable archaeol ogists to link the stat ic archaeological re cord to the dynamics that formed It, then middle-range theory must be deve l oped to synthesize the dynamics under an overarch lng theoret ical pe rs pect ive. Th is pe rspect ive, In keepi ng wi th the goals of archaeo l ogy , must be to def ine and Interpret cu l ture process , to reconstruct lifeways, and to place these in chronological context . South <1988a , 1988b> , working under an evolutionary paradigm, states that Interpret ing cu l ture process requ ires a ser ies of linking steps In wh ich historical archaeologists make arguments of relevance . If historical archaeology Is ever to enter ma instream anthropology

by devot ing time to middle-range research . Then we can begin to

adequately answer those •Quest ions that Count•.

There have been substantial advances ln theory bu ilding In

historical archaeology , most notab ly In the late 1970s by South

<1977> , Ferguson <1977> , Sch iffer <1976 , 1977> , and Otto <1977> , aimed

at ga ining a better understanding of how cu l tural systems work . These

studies attempted to step beyond site or artifact specific level

anal yses to assign mean ing to patterning In the archaeological record.

Except for Sch iffer <1976 , 1977 , 1987> , wh ose wr ltlngs and research have not been specifical ly directed at historical archaeology , none of

these works can be characteri zed as middl e-range research . Lately, however, Deetz <1988> and Leone <1988 ) , wi th others

1988 ; Leone and Crosby 1987 > have been cal ling for a spec ial form of middle-range research wh ich uses historical

Leone 1987>. According to Leone <1988), this Is di f ferent from using

the documen tary record to refute or re inforce the archaeological record because mean ing is assi gned through analysis and Interpretati on of the amb lgul t les between the wr itten/oral and archaeological records , and not Ju st explained away as ldlosyncrat lc behavior . Whil e th is approach appears promising

archaeologi cal record wlth ethnoarchaeologlcal and experimental

studies In historical archaeology , something thls research attempts to

do .

In order to better Interpret the archaeological record,

archaeologists need to observe mater ial cul ture operat ing in systemic

contexts and envision It as a po tential archaeological assemb lage .

Houses and outbui ldings , wi th nai ls, stones, bricks , mortar , and wi ndow glass, po tential archaeological assemblages , are st i ll standing and funct ioning as they were in the past . Act ive dumps with

arch itectural artifacts are sti ll becoming part of the archaeological record. Peopl e are constructing and tear ing down bu ildings like their

fathers and grandfathers before them . These dynamics are observable

and measurable.

Nall s, sometimes the most common artifacts recovered from histor ic si tes, have been largely over l ooked as a source of

Informat ion about site formation processes. Nal ls can be especial ly we ll suited to answer ing quest ions concern ing construction, repair and remode ling, abandonment , and destruction of bui ldings , If pa tterns ln nai l assemb lages can be de tected and correctly Interpreted.

In this research, standing outbui l dings, active dumps , ethnoarchaeologlcal data, and control led experiments are used to record dynamics wh ich create and pa ttern nai l assemb lages .

Outbuil dings, rather than houses , are empl oyed to observe the systemic context of nai ls. The reasons are as fol lows : 1) ou tbui l di ngs are

4 basical ly of simpl er construction, usual ly single pe ns

A bu ilding can be conceptualized as hav ing a life history

repair; 3) remodel ing and/or redef ined use; 4) abandonment and deteriorat ion; and 5> destruction. Of course , there may be more than one repair or remodel ing stage for a particular bu ilding, and stages may be sk i pped. At each stage , however , nai ls can enter the archaeological record, leaving archaeologists wi th a residue of events wh ich occurred at a slte.

Most research on nai ls used by historical archaeologi sts has been carr ied ou t pr imarily ou tside the discipl ine, directed towards deve lopi ng a nail chronol ogy

Smi th 1975; and Loveday 1983) . Ty pi cal ly, historica l archaeologists sort nai ls Into their gross manufacturing types Chand wr ought, cut , and wlre > and count them .

Prev l 9us research Indicates that lt ls possible to Identify agents responsible for creating pa tterns ln an archaeological nal l assemb lage . Wa lker

<1971 > used the frequencies of different nal l pe nnyweights for reconstruct ing the appe arance and structural features of the Arkansas

Post Branch Bank . Simi larly, Young and Carr (1989 > we re ab l e to est ablish corre lations between pennywe ight types and their function wi th nai ls recovered from standing historic structures ln East

Tennessee . Fau lkner <1984 ) used cl inched wrought nai l distributions to reconstruct the appearance of the James White house In Knox County, Tennessee. Young and Carr <1989> proposed a techn ique for dlscrlmlnatlng nai l assemblages from an ephemeral structure from those In secondary per ipheral dumps . Identifying and correct ly Interpret ing patterns In nai l assemb lages Is necessary before historical archaeol ogists can ass ign mean ing to the archaeological record with respect to wood construction, and could prove extreme ly useful In reconstructing house lot use In 19th and early 20 th century si tes .

The research In this thesis bui lds on the work of Wa lker <1971 ),

Fau lkner <1984) , and others , to Ident ify the forces wh ich alter nai ls and create pa tterns ln nail assemb lages . Ex per imental and ethnoarchaeologlcal methods are empl oyed In addressing three basic pr ob lems :

1> Determining the di f ferences between archaeological nal l assemb lages from bu ilding sites and secondary per ipheral dumps ;

2) Reconstructing the structural features of bu ildings ; and,

3> Reconstruct ing how bu ildings were disman t led .

6 Since construction techn iques are close ly assoc iated with

technol ogy and avai lability of nai ls, and assuming that recycling

behavior may be highly correlated wi th cost of nai ls, a br ief history

of nai l manufacturing technol ogy in America is presented. This serves

to pl ace this re search in tempora l and economic perspect ive.

History of Nai l Manufactur ing Technol ogy

Na il making began before the th ird century A.D. In western

Eu ro pe . In fact , hand wrough t nai l technol ogy was we ll devel oped and had rema ined unchanged for centuri es. For exampl e, tool s for making nai ls recovered from British Roman archaeological sites are essential ly the same as colonial Ame rican nai l mak ing tool s

1970>. Innovat ions did occur, such as size standardizat ion and be tter methods of mak ing nai l rod from wh ich nai ls are cut .

An earl y Innovat ion Introduced In 15th century was the

sl itting mi ll. Th is dev ice cut wrough t Iron pl ates Into nai l rods wh ich In turn were cu t Into nai ls. It wa s also at abou t thi s time that the •penny• pricing system began to be used . Under this pricing

system, eight penny nai ls referred to the pri ce pe r

1000 na i ls and corre sponded rough ly to the length of the nai ls

1970>. Th is was essential ly the first step towards standardization of nai l sizes.

Hand wrought nai l manufacturi ng was a two step process

1963) . First , pl ates we re produced by ro lling mi lls

and cut by the sl itting mi ll

7 Into thln rods correspondi ng to the thi ckness of the na il shank . The second step could be pe rformed at the sl itting mi ll. Since It was common and less expensive, however , to sh ip the nai l rod, consumers usual ly compl eted the nal l-mak lng process. The second step, converting nai l rod Into nai ls, deve loped Into a cottage Industry ln colonial Amer ica. It did not requ ire a large capi tal Investment or highly sk illed craftsmen , usual ly slaves and even ch ildren made nai ls

. Ha ll rod could be heated In any firepl ace . It was po inted and then cut from the rod usi ng a , ch isel and common anvi l. The most common form of po int was produced by work ing the four surfaces of the nai l rod to a po int. Other po ints were made by flatten ing the end of the rod to produce a 1b lll1, and st ill others received ch isel po ints wh ich required that on ly two surfaces be brought to a po int. Each type of po int requ ired the nai ler to heat the rod and str ike several blows with the hammer . Once po inted, a section of the rod corresponding to the length of the nai l was cut .

Final ly the nai ler headed the nail . Heading requ ired an addi tional simpl e tool for securely hol ding the nai l blank wh ile flattening the prox imal end Into a head. Al though the process varied somewhat, lt was usual for a nai l blank to be pl aced In a wrought Iron tube with a tapered hole large enough to hold the nai l bu t narrow enough to pr event the nai l from fal l ing through . A rosehead was produced by flaring the around the shank , produc ing several facets. A t-head was fash ioned by spl itting the upper portion of the shan k and

6 flattening It

Manufacturing hand wrough t nai ls was labor- Intensive; hence , nai ls were expensive and scarce , from the colonial per iod until we ll

Into the 18th century . Documentary ev i dence suggests that nai ls were so scarce that old bu ildings were burned to retrieve the nai ls

Par liament had outlawed the colonial manufacture of nai l rod.

Although a sizable Industry had developed, nai ls continued to be expensive . For Instance , nai ls so ld for ten to fourteen cents a pound ln 1800 along the eastern seaboard, and even more Inland, as opposed to 2 cents pe r pound ln 1890 .

A dev ice for turning out •pre-cut• wrought nai ls was deve l oped at the end of the 18th century . Th is dev ice simpl y cut a ser ies of nai l rods Into blanks that wou ld later be po inted and headed . There were some disadvantages of this mach ine over the contemporaneous cu t nai l mach ine. One was that the dle wh ich produced a certain nai l length had to be changed as different nai l lengths were produced. Wh ile this wrought nai l cutter could have he l ped to standardize nall lengths, lt was not widely used. However, this mach ine, along with me thods for pr oducing cast nai ls

The technol ogy for manufactur ing hand wrough t nai ls remained basical ly unchanged dur ing the pe riod of colonial settlement In Nor th

Amer ica by Europeans. Differences ln shape and size are largely attributable to differing funct ions and perhaps Idiosyncratic behavior of the individual nai lers . There are no def inable ways In wh ich to different iate hand wrought nai ls made between 1620 and 1780 .

Attributes used In th is study to dlstlngulsh hand wrought na ils from other nal l types Include the square shank shape and the configurat ion of the po int.

Exact ly when mach ine cut nai ls entered the scene In the Un ited

States Is undetermined. It is known that mach ine cut tacks, used pr imarily for text ile cards , were used In Europe In the mid-18th century

Invention. Numerous machines for cutting nai ls were patented in the

Un ited States In the 1780s and 1790 s.

Wh ile the begi nning of the machi ne cut nai l Indu stry was not a ser i ous threat to the hand wrought Industry , the Idea of cutting nai ls from pl ates rather than rods was revolutionary and the mach ine cut nai l largely repl aced hand wrought nai ls by around 1830. Improvements ln mach in ery and locat ing nal leries close to domest ic Iron sources

10 made It possible for cut nail manufacturers not on ly to me et the needs of the expanding domestic market , but also export large quantities of nai ls .

Mach ines for produc ing cut nai ls were si mply cutters wh ich sheared nai ls from wrought Iron plates. The mach ines could be powered by hand, water , and later by steam. The plates were cut Into widths which correspond to nail lengths. Nal ls were produced In two steps.

Plates were Inserted Into the cutter by workers and the blade wou ld strike a sma ll si lver of me tal from the plate . The bl ade would strike at a sl ight angl e, thus cutting and pointing in one step.

The plate was either flipped or wiggled after each strike. Heading was the second step.

Ear ly mach ine cu t na i ls were hand headed in mu ch the same way as hand wrough t nal ls. However , from the beginning of the cut nail

Industry , Inventors sough t to improve mach ines wh ich could head nails.

These automatic heading devices were not perfected and used widely unt il the 1830s . Ear ly mach ine headed nal ls show evi dence of compression on the shank wh ich resulted from gr ipping the nai l along the narrow sides. Better au tomat ic headers were devel oped wh ich turned the nail ninety degrees for gr ipping on the wider surface . Th ls prevented the upper portion of the shank from be ing crushed dur ing heading. Exactly when this

Innovat ion In heading occurred ls uncertain. Ne l son <1968> and

Loveday <1983 > agree that by the late 1830s nails were headed after turn ing the na ll ninety degrees . Smi th <1975 > suggests that the

11 technique was Introduced In the 1820s. A de termination of exact ly when al l nai ls were turned and headed requires addit ional samp les from known contexts.

Another Innovat ion occurr ing In 1836 for mach ine cut nai ls was the rotary squeezer . The rotary squeezer was used to make the wrought iron plate In such a way as to make It possible to make nai ls with the grain of the me tal runn ing lengthwise rather than across the shank .

Nal ls produced ln this way were more easi ly cl inched than earl ier nails wh ich tended to break when cl inched.

By the mid-19th century , nai l technology had ou tgrown Its cottage

Industry roots and had become Indu strial ized. Nal ls were mass-produced and the Industry had reached a technol ogical plateau.

Nail makers that located their factories near rol ling mills and ore sources could produce nai ls cheaply. A rather large Indu stry deve l oped In the Upper Oh io Va l ley . Between 1805 and

1825 nai l prices rema ined constant at around 9.5 cents per pound. By

1835 pr ices reached an average of 5 cents per pound . Between 1850 and

1870 , product ion more than doubled, most of this due to more manufacturers rather than to Increased levels of product ion. By the time the Industry was ful ly mature , nai ls were relative ly Inexpensive and avai lable to a large portion of the popu lace . Because of this, nails were probably not often conserved by consumers. Th is Is an

Important fact to consider In the anal ysts of nai ls recovered archaeol oglca lly. Recyc ling of older nai ls may introduce a temporal bias Into the sample.

12 Wi re na11s are characteri zed by a round shank and a regular round stamped head. Nel son C1968> assigns an Inception date of 1850s to wire nai ls ln his publ icat ion 1N a ll Chronology as an Aid to Dat ing Old

Bu ildi ngs• wh ich ls the most widely cited reference for nai l chronol ogy used by historic archaeo logists. Unfor tunately, the date

Is Inaccurate. The early wire nai ls were made of Iron . These nai ls were not strong enough for bu ilding purposes , but were used for crates. The Uni ted States Patent Of fice granted the first patent for wire nai ls strong enough for heavy construction in 1877

1983> . After 1880 nai ls became common . By about 1890 , wire nail production had overtaken cu t nail production . Cu t nai ls were se lling for around 2 cents per pound In 1890

1983). By 1913 cut nai l product ion accounted for less than ten percent of the total nai ls produced In the Un i ted States

1983> . It was dur ing th is cr itical transi tion from cut to wire nai ls that the cut nai l Indu stry badl y overex tended Itse lf by invest ing ln cut nai l technology . As a result of th is, and ln order to compete wi th cheaper wire na i ls, cut nai ls manu facturers were forced to se ll be low cost . Manufacturers could not convert to wire nai l mak ing, a process so radical ly different that lt requ ired new mach inery . Th is was an expensive gamble for an already su ffering industry . Instead, ln the 1890s cut nail manufacturers began to diversify Into wrough t Iron and Bessemer steel products. By 1892, there were already forty-n ine wlre nai l manufacturers ln the Un i ted

States .

·� Wi re nai ls had several advantages over mach ine cut nai ls. The wire nai l was cheaper to manufacture because less metal was used and the technol ogy more automated. A spoo l of wire repl aced the nai l plate and the attendant who fed the cutter was no longer needed. Wi re was fed Into the mach ine conti nuously wh ich el iminated the necessity of fllpplng the plate and Increased the rate of production. The wire nai l was also easier to use . It did less damage to the wood and could be pu l led eas i ly. Wire nai ls were advertised as easier to straighten if bent .

Before the last two decades of the 19th century , wire na i ls were used primarily for construction of pack ing cases . It took Improvement

In technol ogy and a few years before the wire nai l was accepted as a cheap , effective rep l acement for the cut nal l ; Swank 1892 : 450-451> . Preiss <1973 :90) suggests that an effective beginning date for wire nai ls used ln bu ilding Is 1880 .

Bu ilding technol ogy ln Amer ica was closely tied to nail manufacturing technology , the exhaust ion of large size timber suppl ies in eastern North Amer ica, and the aval labl llty of mi lled lumber . For Instance , the ba l loon frame construct ion techn ique was developed In the 1840s for Inexpensi ve , easy to construct housing . Bal loon requ ired affordable nai ls , and a supp ly of cheap , standard size mi l led lumber .

The 19 th century timber frame also requ ired na l ls for attach ing

i4 shakes, sidi ng, and ing. A combinat ion of hewn timbers and

mi lled lumber was used In the early decades of the 19th century for timber frame structures. These same economic and technol ogical factors affected vernacu lar carpenters' choices of construction techn iques, and whether or not arch itectural ma ter ials were conserved and recyc led. Th is, In turn , affected howna i ls moved through their systemic contexts and entered the archaeological record, the subJect of th is thesis.

Conclusions

Binford <1983:20> states that middl e-range research In archaeol ogy Is •a means of deve loping secure and Intel lectual ly

Independent Interpret ive principles and of expanding our knowledge of re l evance to our Interpretive task• . One of our Jobs as archaeologists Is to study linkages between ma terials observed In the archaeological record and the behav ior wh ich results In the procure men t, modificat ion, and disposal of these ma terials. A large component In historical archaeol ogy are arch itectural artifacts. In

South's artifact patterns , even the Carol ina pattern , a substantial rat io of artifacts are classi fied as arch itectural . Yet histor ical archaeologists pay very little attention to this class of art i facts beyond Interest In them as chronological markers . Clearly, though , for understanding something as Important and basic as she lter and the use of space , archaeol ogists mu st trai n themse lves to pay attention to ways behav ior creates pat terns In architectural art i facts. CHAPTER II

DUMP SITES AND BU ILDING SITES

Introduction

The household, wh ich has been var iouslY de fined and redef ined emlcal ly ln Amer ican society

McMurry 1988), ls a baste an alytic un it for understandi ng llfeways an d cu l ture process , Important Issues In Amer ican an thropol ogy . The house lot was the ar ena for much day-to-day llvlng ln the past , as lt ls today . The house lot was somet imes the center of household production, sometimes the center of household consumption, but usual ly some combination of both . Therefore, reconstruct ing house lot use , how It changed through time, howpeo ple di vided and used space based on factors such as cl ass, ethnlcity, technology , topography, cl imate , distance to markets, and others, Is a necessary and Important component of historical ar chaeology . In fact , historical archaeology , wi th its foundat ion In mater ial cu l ture of the past , stands In a unique position to bu ild upon an d contribute substantively to work of other social sc i ences Interested In household-level analyses; and with household-level anal yses lt can be art iculated Into mai nstream anthropological pursuits. But before such substantive contributions can be made , historical ar chaeologists need to devote time to basic Identification of house lot act ivity areas.

Th is ch apter Is a smal l step In this direct ion, bu ilding on the work of South <1979> and others on historic site content and functton , bu t

1� di ffering by taking an ethnoarchaeologlcal approach in Identifying

signature patterns of nai l assemb lages from house lots.

The archaeological remains of house lot use-areas are sometimes a pal impsest of postholes, clusters of Kitchen group and Architectural group art i facts, and oftentimes ambiguous deposits and assoc iations.

Locating ou tbuil dings and Identifying their functions can be probl emat ic since of ten bu ildings such as sheds and smokehouses were ephemeral structures bu ilt on pier supports. Additional ly, house lots, especial ly 19th and 20 th century house lots , are characteri zed by very high frequenc ies of nails, de scr ibed by Jurney <1987:83> as •nail ralnu. Ex t reme ly dense concentrations of nai ls can indicate the presence of a structure . Caut ion must be taken in equat ing nai l concentrat ions with bu i ldings , however. Arch itectural dumps, where

lumber from one or more razed/remode led structures is piled up ln an area , are also character ized by extremely dense concentrat ions of nai ls. Th is chapter presents a method by wh ich assemb lages of nai ls from dump areas can be distinguished from assemb lages of natl s from construct ion si tes, based upon the frequenc ies of unal tered, bent

Methods

Five carpenters were Interviewed to de termine whether It mi ght be possible to correct ly Identify past act ivities such as construction and raz ing of bu ildings , by examining nai ls. The carpenters described pu lled and cl inched nai ls, then examined some nai ls recovered

1? archaeologlcal ly and suggested that It may be feasible to distinguish

nai ls of bu ilding sites from nai ls of dump sites based on the

frequencies of unaltered, pul led, and cl inched nai ls. Unal tered nal ls

are straight, often unused nai ls. Pul led nai ls are characteri zed as

bent in gentle arcs . Cl inched nai ls are bent at an approx imate 90

degree angl e.

Na lls, like other artifacts, are moved through a cycle of

acquisi t ion, use , and discard or loss , and so me final ly enter the

archaeological record. Determinat ion of when nai ls were deposited ln

this cycle Is possible through the ldent lflcat lon of the physical

forces wh ich al ter or damage nai ls. On do mestic sites, nai ls are most

like ly deposited dur ing construct ion or raz ing of a structure , or

through the decay ing of a structure or a wood pi le In a domest ic

dumping area.

Du ring the process of construction, same nai ls are like ly lost at

the site. For example, 40 unal tered nai ls and two pul led

nai ls were col l ected Immediately adJacent to a structure Just after lt

was bu ilt In west Knox County, Tennessee . The structure contains 5472

nai ls. Just after construction, some lost nai ls may be cleared from

the area, others enter the archaeo logical record as unal tered nails as

In the modern construction si te. Also dur ing construction, some nai ls

are discarded at the construct ion site as damaged nai ls . The

remainder of the nai ls would enter the ir systemi c context , that Is as wood In a bu ilding. Some of these nai ls wou ld be cl inched

to increase their holding power . If a structure was al lowed to de teriorate at Its original site, nal ls would drop to the ground as

the wood rotted and the structure col lapsed.

When a building is destroyed, nai ls are either pulled with a or claw hammer , or ent ire boards are pu lled from the bu ilding.

Some pulled nal ls enter the archaeologi cal record at the bulldlng site. Often, large port ions of wa l ls or roofs are removed from a bu ilding and are carr ied to a dump site. At the dump site, nal ls or boards could be removed from the sect ions to better stack the lumber .

At th is point, pul led nai ls enter the archaeologi cal record at the dump site. As the wood rots, nal ls left in the wood , both pu l led and cl inched, also enter archaeologi cal context.

At a dump site, a large number of pu lled and cl inched nai ls are expected. At a bu ilding site where the structure was razed, the nai l assemb lage should be characteri zed by a significant proportion of pu lled and unal tered nai ls, wi th relative ly few cl inched nai ls. At a site where the structure was al lowed to rot , the assemblage shou ld be character i zed by significant numbers of cl inched and unal tered nai ls wi th relatively fewer pu lled nai ls. Because nai ls were ge neral ly affordable dur ing most of the 19th century

Interv iewed suggested that lt was more common to recyc le lumber than nai ls because the damage Incurred on nal ls dur ing pu l ling left them re latively useless.

19 Al terat ion of Nal ls from Dump Sites

As stated, an assemblage of na i ls from a du mp site Is expected to

contain few unal tered nai ls as compared to bu ilding sites. Samp les of

nai ls from three modern du mp si tes were analyzed and compared to na ils

from two late 19th century bu ilding sites . The moder n dump sites are

a du mp on the Truan farm In Knox County Tennessee , and two du mps on

the Kl ippel farm in Blount County, Tennessee . These three du mps were

made up ma inly of boards from razed structures or boards rep l aced

dur ing repair of structures, posts, and other materials such as

brush , gas cans, and un identified me tal . The archaeological bu ilding

sites are Cavett's Statton <40KN67> , and the Hatt Russe ll site

<40KN127> . The Cavett's Statton structure Is shown on a 1895 Knox

County, Tennessee map . The Hatt Russel l nai ls were recovered from

units Immediately adJacent to a standi ng br ick 1-house wh ich showed

architectural evidence of a porch .

Observed and expected frequencies of unaltered , pul led, and

cl inched na i ls from the three ethnoarchaeologlcal dumps are presented

In Table 2. 1. Wh ile the samples are sma l l, it is possible to discern

patterns. It ts·tnterest lng to note , as expected , the frequency of unal tered nai ls compared to pu l led and cl inched nai ls, Is relatively

low. Averages suggest for every unal tered nail, there are

approx imately three pu lled nai ls and one cl inched nail.

Variability between dump sites may be ref l ected in percentages of pu lled and cl inched nai ls because of how nai ls enter the

20 Table 2.1: Observed and Expected Frequencies of Unal tered , Pu lled

, and Cl inched Nalls from Modern Dumps

u p c

(38.1) <196. 2) (60.7) Blount Co . 1 37 206 52 295

(24.8> <127.7) (39.5) Blount Co . 2 25 125 42 192

(20.1) (103. 1) (31 .8) Truan dump 21 96 38 155

TOTALS 83 427 132 642 ch i square = 4.0859 df = 4 p = .3945

archaeological record. Nal ls ln pul led boards stacked and left to rot away may enter the archaeological record, or handfu lls of waste nai ls may be tossed into a refuse area . Addi tional ly, the br ittle nature of cut nai ls may have reduced the practice of cl inch ing wh ere cut nai ls were the on ly avai lable type . Therefore , wh ile cl inched and pu lled nai l proportions may vary between dumps , the low frequency of unal tered nai ls shou ld remain constant .

Alteration of Na l ls from Bu ilding Sltes

An assemblage of nai ls from a structure site would be expected to contain a relatively hlgh proportion of unal tered nai ls . Pu lled nai ls shou ld also be numerous, pul led as mistakes dur ing construction, or pu lled by a claw hammer or crowbar dur ing remode ling or raz ing. Cl inched nails,

difficult (if not impossible> to remove from wood without first

straighten ing the na l l, wou ld be rare , un l ess the structure Itself was

allowed to rot. A sample of archaeologlcal ly der ived nai ls taken from

known bu ilding areas Is presented In Table 2.2. Unaltered and pulled

nai ls are frequent and cl inched nai ls are rare. A <3 - 3- 1>

relationsh ip ls Indicated between unal tered, pu lled, and cl inched

nai ls. A ch i square test Indicates no slgnlflcant difference at the

0.05 level between the two assemblages.

Table 2.2: Observed and Expected Frequencies of Unaltered , Pu lled (p), and Cl inched Nal ls from Archaeol ogical Bu ilding Sites

u p c I TOT ------1------(53.9) <63.9> C18.2) I Russe ll construction 59 58 19 I 136 ------l ------<44. 1) <52. 1> <14.8> I Cavett's construct ion 39 58 14 I 111 ------1------TOTALS 98 116 33 I 247 ch i square = 2.3626 df = 2 p = .3069

Results

The ch l square tests have show n no significant dif ferences between the dump si tes, and no significan t di fferences between the

22 construct ion sites used In th is study . A ch i square test of the

frequenc ies of unal tered, pu lled, and cl inched nai ls from bu lldlng and

dump sites shows a significan t difference at alpha= .OS. Table 2.3

shows the observed and expected frequencies of unal tered, pu l led, and

cl inched nai ls for the total construction si tes and total dump sites.

Table 2.3: Observed and Expected Frequenc ies of Unal tered . Pu lled Cp >, and Cl inched Nal ls for the Construction Sites and Ethnoarchaeol ogical Du mp Si tes

u p c I TOT ------1------(50.3) <150 .9) (45.8) 1 Total construction 98 116 33 I 247 ------l ------(130 .7)(392.1)(119.2) 1 Total du mp 83 427 132 I 642 ------1 ------TOT 181 543 165 I 889

ch i square = 78 . 7727 df = 2 p < .0001

As can be seen , particularly In Table 2.3, signature patterns

emerge , wh ich are character istic of du mp areas and bu ilding sites. As

expected, construction areas are characteri zed by high frequenc ies of

unal tered nai ls and low frequencies of cl inched nai ls, when compared

to du mp areas . Use of the me thod of analysis developed here can al low

the archaeologist to ident ify sites of short-term arch itectural du1nps where old lumbe r was plied after a bu ilding was razed, and sites of

epheme ral structures. Both of these areas are character i zed by den se concentrat ions of nai ls, and often, nothing else

pier support> ex ists in the archaeological record to identify an area

as the site of a bu ilding.

Conclusions

Compar isons of data from archaeological and ethnoarcheologlcal dump sites and archaeological bu ilding sites show that frequencies of unal tered , pu lled, and cl inched nai ls exhibit patterns which can be used by archaeologi sts to identify a site as an ephemeral structure or a peri pheral dump . Both of these site types are character i zed by high

frequencies of nai ls. Bu ilding sites exhibi t a pattern of higher numbers of unal tered nai ls and low frequencies of cl inched nai ls.

Dump sites are characterized by low frequenc ies of una l tered nai ls, wi th higher frequenc ies of cl inched nai ls.

Wh ile art ifact patterning

Th is study has shown that the search for signature patterns beyond those proposed by Sou th and Bal l is productive. Focusing on a particular art i fact class wi thin the Arch itectural group enhances ab i lities to reconstruct systemi c context . In-depth ana lysis of other arch itectural classes would br ing in other lines of evidence , thereby strengthen ing Interpretations.

Al though the archaeological rema ins of house lots are sometimes confusing assoc iat ions of artifact concentrat ions and features , middle-range theory can place the archaeologist ln a posi tion of

24 , assigning mean ing to the archaeological record of the house lot, or tn

Binford's words <1980 : 5> •accurately diagnosing patterned var iabi lity• . By ethnoarchaeol oglcal Invest igations of bu ilding sites and active dump areas, It has been possible to Ident ify signature patterns of nai l assemblages assoc iated wi th each of these two site types. Correctly ldentlfylng house lot funct ional areas Is a necessary first step ln understanding how house lots were adapted to part icular envi ronments or to technological change .

25 CHAPTER III

LOG , TIMBER FRAME , AND BALLOON FRAME STRUCTURES

Introduct ion

Th is chapter Introduces a way In wh ich data gleaned from historic

standing structures can be used to make rel iable Inferences about

arch aeo logical nal l assemb lages and the structures they represent.

Eight extant structures , most ly outbui ldings , were carefully me asured,

and nal ls of different funct ions were counted. From these data, mode ls were generated whereby structure type ls predicted from

archaeological nal l assemb lages. In other words , the mode ls al low for

ldent lflcat lon of the klnd of bu ilding

frame ) that stood at a slte. Wl th the models, reconstructions based

on Informant an d docu mentary dat a can be tested. The types of

structures represented by the nai ls from two arch aeo logical sites, the

Garner site located In Blount County, Tennessee , an d the Locust Grove site in Jefferson County, Kentucky, are ldentlfled based on mode ls devel oped here .

Arch itecture and Archaeol ogy

From the works of such schol ar s as Gl ass le <1963 , 1975>, Kn iffen

<1965> , Vl ach <1976>, Deetz <1977> , an d others , historical

archaeologists can examine how ar ch itecture has changed over time , how bu ildings differ between ethn ic grou ps an d be tween social and economic classes of people. By studying ex tant structures and the documents

26 that descr ibe them, schol ar s can develop Ideas concernLng past

bu ilding construction, how people divided their living and working

ap ace , and howet hnlclty and class af fected their concepts of the

bu i lt envi ronment. But can the Informat ion from these studies be usod

to Interpret the archaeological record? At present , on ly a broad

picture can be presented of how an d why people constructed their

bu ildings the way they did, and of how such thi ngs as technological

adv ances and the distribution of resources an d capi tal af fected

peop les' dec isions of how and where to bu ild, and what they needed to

surv ive and thrive.

What data are av ai labl e prov ide Interest ing an d provocat ive, If

fuzzy , pictures of bu ildings of the past . For Instance , from reading

Southern an tebe llum-period agricultural Journal s ,

It Is ap parent that same planters , at least , were aw are of the need to

prov ide adequate she lter for the ir sl aves . Ideal ly, according to

these planters, housing was supposed to be wel l vent ilated, we ll

heated, and su fficiently large <•commodious• ) for sl ave fami lies . But

rememberances of former sl aves of fer a contrasting picture . Here ls a

fairly typical descr iption:

The cabins we lived In was bu i lt of logs spil t open and pegged

together . The fire plac es was blg that held logs ••••These ch imneys was made of st icks , dirt , an d straw. The cabins didn't have but abou t one window and two doors .

Based on descr iptions by former sl av es , Orser <1988:93> states that sl ave houses usual ly consisted of a singl e pen and that windows were not

27 glazed bu t rather wood shuttered. Some had dirt , some had wooden floors.

These memor ies of former slaves , and the Ideal housing publ ished by planters , provocat ive and contrast ing pictures of slave houses .

Bu t they do not prov ide us with the physical detail to Interpret archaeological rema ins of sl ave and tenant houses, and do not al low for rel iable Inferences about the past bu i lt env i ronment.

Here Is another interesting picture of the past . Mr . C. Butler

Rider designed and bu ilt a new farm house In western New York . He sent his design, and his comments to Moore's Ryral New Yorker In January 1860 , stating that :

a we l l -made bal loon frame Is much cheaper and better for al l houses of moderate height than a timber frame . It adapts Itse lf better to circumstances. It Is more plastic, so to speak .

McMurry (1988:12> descr ibes the ba l loon frame:

The ba l loon frame , first devel oped ln Ch icago in the 1830s and 1840s, repl aced the cumbersome timber-framing system of massive beams held together with wooden pins. Instead, the bal loon frame consisted of many ligh t, un i formly sized and spaced studs nai led together. A few people could erect the frame using such simple tools as a hammer, , and nai ls. Th is Innovat ion, wh ich the

agricultural press publ icized extenslvely •••al lowed for spat ial var iety and did not requ ire soph isticated bu ilding sk i ll.

If the ba l loon frame was so cheap and easy to bu ild, plastic, and widely publ icized, why did some bu lldlers choose timber-framing? How frequently and where did the preference of timber-framing over

28 ba l loon-framing occur after the latter was In troduced as a construction

techni que? If historical archaeol ogi sts depend upon examining surviving

19th century structures to answer these quest ions, the results may be unrel iable because of the biased nature of the sample of surviving bu lldlngs . Similarly, using data on ly from standing slave •cab lnsu

cannot answer the quest ion of adequacy of sl ave housing. Data are needed

from the archaeological record to address these problems. But before

th is can be accompl ished, historical archaeologists must accurately

Interpret al l types of arch itectural rema ins: foundat ions and other

features; window gl ass ; masonry ; and nai ls.

Developing Reliab le Inferences Abou t the Archaeological Record

In order to deve lop a methodol ogy that can al low for rel iable

Inferences abou t architecture from the archaeological record, standing ou tbuildings and houses in East Tennessee were surveyed. Th is was accompl ished In order to detect and Interpret patterning in nai l asse mbl ages. Based on wh at is known abou t the manner bu ildings are constructed, it seems logical that the frequenc ies of na il lengths would vary between bu ildings of log, timber frame and ba l loon frame . Each of

these bu ilding types shou ld have a nai l signature pattern that might be

recogn izable in the archaeological record . The goa l here Is to analyze an archaeological nai l assembl age , and based on the nail length

frequenc ies, re liab ly de termi ne If the structure was log, timber frame , or bal loon frame .

29 Field Methods

Eight outbui l dings were surveyed; three Jog, two timber frame , and three bal loon frame bu ildings . None of these structures was extensively modi fied. Each structure was measured and photographed, and the number of nai ls In each of the fol lowing functional categor ies was recorded: 1> floor i ng: 2> roof ing: 3> siding; 4> heavy framing

Jo ists, door frames and window frames> ; 5> light framing ; and 6> other . Additional ly, for most of these functional categor ies, one or two nai ls were re mov ed and nai l length was measured. For the heavy framing category , recording the exact na ll length was of ten Impossible so an est imate was made based on the observed head and shank slze. These nai ls were recorded as Jess than 3.0 Inches, greater than 3.0 Inches, or equal to 3.0 Inches <3.0 Inches = modern 10d> .

The Eight Extant Structures

Log Bu ildings

Bu ilding a log structure requires little spec ial ized sk i ll, a minimum number of tools, and few ma terials not available at or near the site of construction. A log structure can be bu i lt wi thout using nai ls, bu t most bu ilders managed to purchase or produce enough nai ls to make doors, window frames , and shutters (Loveday 1983:27> . For resl denttal bu ildings , nails were also used for Interior woodwork.

30 Ramsev Jogshed . The Ramsey shed ls a log outbuilding of

undetermined or iginal function, currently used as a storage shed at the

historic Ramsey House ln East Knox County . It measures 15 by 17 feet , Is

a single story , and contains a door at a gable end. The roof Is covered

wl th wood shakes nai led to spaced sheath ing. There are no windows. The

door Is board and batten , and the eaves are clapboarded. Most of the

nai ls assoc iated with th is structure are used ln roof ing, the rest In the

roof superstructure , door and door frame , and clapboards . Table 3.1

presents the structure's nai ls by size and funct ion.

McCorkle •sJavea bouse . The McCork le •sJave• structure is a 1 1/2

story single pen V-notched Jog bu ilding measuring 17 feet 7 Inches by 15

feet 9 Inches . It ls located in Greene County ln East Tennessee . Based

on the limestone firep l ace base at one gable end, it was most like ly a

dwel ling. An Informant suggested that it was or lglnaJ Jy a sl ave house .

Opposite the ch imney is a window . There are two doors. The floor is

wood , and the roof is tln. The structure was bu i lt on a continuous

limestone foundat ion. Table 3.1 presents the frequencies and sizes of

nai ls by funct ion.

McCul Jomsmokehouse . The McCul lom smokehouse ls a singl e story

V-notched log structure measur ing 12 feet by 14 feet 7 Inches , standing wlthln a cluster of outbuil dings at the McCul lom farm In Blount County ,

Tennessee . An informant who lived and worked on the McCul lom farm

remembers the structure used ln the 1930s to smoke pork . It is currently

used for general storage . The structure Is set on limestone piers. The

31 roof ls cant ilevered and covered wlth tln, and a door ls set lnto a gable

end. There are no windows and the floor is earth . The intersti ces

between the logs are not ch i nked, but rather boards have been nailed on

to cover the spaces . The door of the structure ls board and batten .

Or iginal ly the boards had been fastened to the battens by pegs , bu t later battens were nai led. The gab les are sided wl th clapboarding. The structure contains a total of 1059 nal ls in sizes ranging from 1.75 to

3.0 Inches <5d - 10d>

.

Table 3.1: Nal ls from the Log Bu ildings

Ramsey McCork le McCullom Nai l Length Function N N N In Inches

------flooring 0 360 0 3.0 <10d) siding * 118 264 479 2.5 <8d> roof ing 3840 225 118 1.5 C4d) light framing 208 128 216 2.0 (6d) heavy framing 323 218 210 3.0+ <10d+ ) trim 0 0 36 2.5 <8d>

------TOTALS 4489 1195 1059

*includes nails used to at tach boards covering spaces between logs on the McCul lom log house

Timber Frame Structures

In timber frame structures , large timbers are Inter l ocked by Joinery to form a framework that supports the roof and Is covered by wood sldlng. Such construct ion requ ires a supp ly of nai ls for

32 wood siding, roof ing, windows , doors, Interior woodwork, and floors .

Even wi th this type of construct ion, nai ls can be repl aced with wooden pegs. Braced frame technol ogy is a form of common ln the

19th century . In a braced frame structure , heavy framing is done wlth mortise and tenon Joinery, and some light framing is attached with nai ls

.

McCorkle •wash housea . The McCork le •wash house• ln Greene County ,

Tennessee , ls a timber frame structure measur ing 10 feet 4 Inches by 12 feet 2 inches . The siding is board and batten . It has a cant ilevered roof covered wi th tin. A door ls in the gable end, and there are three louvered windows . Table 3.2 shows the distr ibut ion of nai ls by funct ion and size .

McCorkle •grain house• . The McCork le grain house Is an 18 by 20 foot timber frame bu ilding wi th board and batten sldlng, located next to the wash house on the McCork le farm ln Greene County, Tennessee . The roof ls a tin-covered cant ilevered structure. A door is set In a gable end, and there are three louvered windows , one In each of the other three sides. The floor ls wood and the Interior wa l ls are partial ly panel led wi th tongue- In- boards about half-way up the wa l ls from the floor .

Table 3.2 presents a breakdown of nal l lengths by function.

33 Table 3.2: Nal ls from the Timber Frame Structures

floor ing * 924 3.0 (10d) siding 740 1266 2.5 (8d> roof ing 240 408 L 7 light framing 210 416 2.5 (8d) heavy framing 158 163 3.0+ (10d+ > trim * 126 392 2.5 <8d>

TOTALS 1474 3569

*undetermined number of floor ing nai ls for the McCork le wash house and Inside panel l ing In the gra in house

Bal loon Frame Structures

In the bal loon frame , mortise and tenon Joinery Is rep l aced with the use of nai ls at the Joints. Instead of heavy posts and beams , corner posts and somet imes plates and si lls are bu ilt-up 2x4s

1984:1 36-137J McAlester and McAlester 1984 : 36-37> . It was est imated In

1869 that a bal loon frame could be constructed for •forty percent less money than mortise and tenon frame• .

Tryan smokehouse . The Truan smokehouse ls a 12 feet 3 Inches by 14 feet 2 Inches bal loon frame structure with vertical sldlng and a concrete floor . It Is located ln northeast Knox Coun ty , Tennessee . The structure

ls a story-and-a-half, with the main floor and loft currently be ing used for general storage . An Informan t wh o grew up and st i ll lives on the farm remembers Its use as a smokehouse . A wash house was bu ilt onto the back , and a woodshed was bu ilt onto one side. The door to the smokehouse

34 Is In a gable end. and the entrance to the loft ls above the door . requiring a ladder to ga in entrance . The roof is tin. bu t was orlglnal ly covered wl th wood shakes. Table 3.3 sh ows the nal l pennyweights by funct ion.

Truan wash house . The Truan wash house is a single story frame structure measur ing 13 feet by 12 feet 3 Inches. It has a wood floor . two doors . and two windows . The roof ls tln. The bu ilding Is slded wlth vert ical boards . A furnace for heat ing water occup ies a corner of the bu ilding. It was bu ilt about 20 years af ter the Truan smokehouse and shares a wa ll with the smokehouse . Table 3.3 shows the number of nai ls for each function for the Truan wash house .

Brabson smokehouse . The Brabson smokehouse . located in Sevier

County, Tennessee . Is a 1 1/2 story frame bu ilding measur ing 16 feet 4 inches by 20 feet 2 inches . It has a cant ilevered tin roof and a dirt floor . There are no windows and a door is in the gable end . The bu ilding ls clapboarded. Table 3.3 shows the frequenc ies of nails by thelr functi ons for the Brabson smokehouse . Table 3.4 presents a summary of the percentages of nai l lengths for each of the structures surveyed .

35 Table 3.3: Nal ls from the Ba l loon Frame Structures

Truan Truan Brabson smokehouse wash smokehouse Na il Length Function N N N in Inches floor ing 0 252 0 siding 811 434 1392 3.0 <10d> roof ing 162 130 684 1.7 (5d) light framing 144 112 374 2.5 <8d> heavy framing 483 40 1 673 3.0+ <10d+) trim 0 0 60 2.5 (8d)

------TOTALS 1600 1329 3183

As seen ln Table 3.4, the frequencies of nal l·sizes for the bu ildings show a great deal of variabi lity. No signature patterns are immediately apparent. The reasons are that the structures are var ious sizes and have different features. Same had floors, some did not . One has a shake roof , the rest have tln roofs. Some sldlng nai ls are 2.5 inches, some 3.0 Inches. Some floors have 10 inch floor boards , some 4 inch floor boards . Wh ile each of the bu ildi ngs is unique , some share common features like siding, roof ing, and floor ing.

Mode ls

One maJ or factor contribut ing to the var iabi lity of pennyweight frequencies Is bu ilding size. Resolution of th is problem comes through generat ing simulation mode ls so that size can be control led. To do th is, frequencies of nai l lengths were converted to number of nai ls of each functional category per square foot

. In this way , re l iable

36 est imates can be made of the number of nail functi ons and lengths for any slze bu l ldlng, and log, timber frame , and bal loon frame structures can be compared.

Table 3.4: Summary of Percentages of Na l l Lengths From Al l Bu ildings Surveyed

Nai l lengths In Inches Structure 1.5- 1 . 7 2.0 2.5 3.0 3.0+

------Ramsey Clog) 85 .5 4.6 2.6 7.2 McCork le Clog> 18.8 10.7 22 .1 30 .1 18.2 McCul lom Clog) 11 .1 20 .4 3.4 65 .1 McCork le Ctlmber> 16.3 73 .0 10 .7 McCork le Ctlmber> 11.4 58 .1 25 .8 4.6 Truan (frame> 10.1 9.0 50 .7 30 .2 Truan (frame> 9.8 8.4 51 .6 30 .1 Brabson (frame> 21 .5 57.4 21 .1

With these data, mode ls have been constructed to simulate structures of dif ferent construction types measur ing 16X16 feet , wlth vary ing roof type. Sixteen by sixteen feet is a common pen size and ls used for compari son of archaeological data from two sites wh ich had structures of this size . Figures 3. 1 through 3.3 present a ser ies of charts, or mode ls, for log, timber frame , and bal loon frame structures with tin and shake roof ing. Floor board widths were held constant at 10 Inches. 16x16 Log Wood Floor

Percent 100

82.4 80

eo

40 29.7 23.8 19.8 20 6.7 4.8 0 1 2 3 4 Nail Length Category

g Shake Roof tgH:lJTin Roof

Key : Nai l length category 1 =roof ing Nail length category 2 =siding and light framing Nail length category 3 = floor ing Nail length category 4 =heavy frami ng

Figure 3.1: Mode l for a 16x16 Foot Log Structure wlth Shake or Tln Roof 16x16 Timber Frame Wood Floor

Percent 100

80

60

40

20 6.4 2 0 1 2 3 4 Nail Length Category

B Shake Roof EElTin Roof

Key: Nail length category 1 =roof ing Nall length category 2 = siding and tigh t framing Nall length category 3 = floor ing Nai l length category 4 =heavy framing

Figure 3.2: Hode l for a 16x16 Foot Timber Frame Structure wi th Shake or Tin Roof

39 16x16 Balloon Frame Wo od Floor

Percent 100 .------�

80 �-�fi -· ·----·------·------� eot-1- --�------i

1 2 3 4 Nail Length Category

B Shake Roof f!:?::::.:::l Tin Roof

Key : Nail length category 1 =roof ing Nai l length category 2 = siding and light framing Nail length category 3 = flooring Nail length category 4 =heavy frami ng

Figure 3.3: Mode l for a 16x16 Foot Ba l loon Frame Structure with Shake or Tln Roof

40 Table 3.5: Conversions to Nal ls Per Square Foot For Each Functional Category For Eight Bu ildi ngs Surveyed

------Extant Structures category 1 2 3 4 5 6 7 8

------floor ing 0 1.3 0 2.6 0 1.6 0 sldlng 2.6 1.6 1.5 1.5 1.3 1.3 roof ing .8 .8 1.1 .9 .8 .8 1.7 It frame .8 .5 .9 1.0 .9 .7 .7 .9 hvy frame .4 .2 .3 .2 .1 .7 .6 .5

------

Ex tant structure 1 = Ramsey Jog 2 = McCork le Jog 3 = McCu llom log 4 = McCork le timber frame wash house 5 = McCorkle timber frame grain house 6 = Truan frame smokehouse 7 = Truan frame wash house 8 = Brabson frame

These mode ls predict how an archaeological nai l assemblage shou ld look , given certain parameters , and can be used to Interpret archaeological nai l assemb lages . The accuracy of the mode ls depends upon the assumption that al l nai ls from a structure have an equal chance of enter ing the archaeological record. At this point ln the research , because of the sma ll sample size

. stat ist ical ly significant dif ferences or simi larities are Inappropr iate.

Instead, the closest fit between a mode l and the archaeological assemblage Is used to predict the type of bu ilding that stood at a site.

When a larger sample of ou tbuildings ls examined and a larger data base with which to construct mode ls is avai lable, then stat istical test ing would be warranted.

41 Judi th McKel lar, ci ted In Sch iffer <1976>, South <1979>, and RathJe

and Schiffer (1980), proposed that sma ll obJ ects, under three or four

Inches ln overall dimension, are most like ly to rema in beh ind as primary

refuse . Schiffer <1976> refers

to thls phenomenon as the McKel l ar hypothesis. Th is cu l tural sort ing may

be at work on a nal l assemb lage at the site of a razed structure . Large

nai ls, greater than 3 inches <10d> may be transported from the site of a

structure In two ways : first , since very large nai ls are extremely

difficult to remove from wood , they cou ld be transported from the slte In

wood discarded elsewhere ; and second , because large

nai ls not in wood are more visible, and may be removed during clean-up

activities at the site of a razed structure . The frequencies of large

nai ls used for heavy framing are most Important when trying to

distinguish ba l loon frame from timber frame structures. For the purposes

of these models, it is assumed that the •McKel lar prlncipte• works

equal ly on an assemb lage from timber frame and ba lloon frame structure sites so that their frequencies relative to each other remain constant .

However , no adJustment can be made to the mode ls until more data are

avai lable concerning the relative frequency In wh ich large nai ls (greater

than 10d> are transported from a structure si te as compared to sma ll nai ls.

42 Archaeological Sites

Garner Si te

The Garner site Is located In Blount County, Tennessee . The site consists of a standing farm house , var i ous standing ou tbui ldings , cisterns, and the archaeological remains of at least one ou tbuilding.

Ear ly in 1990 , the area of an ou tbuilding located beh ind the house was tested by open ing 70 1x1 foot test un its spaced every three feet . Six pier supports, and the base of a br ick firep l ace were located In the testing . An early 20 th century photograph shows that the structure was a double-pen bu ilding wi th two doors and a wood shake roof . The bu ilding was sided with board and batten . A tln roof later rep l aced the wood shake roof . From the spac ing of the pier supports, each pen measured approx imately 16X16 feet . A total of 175 comp lete nai ls was recovered In the test ing

.

Many of the nails measuring 1.75 Inches <5d> st ilt had lead seals on the heads , Indicat ing their use as tln roof ing nails. Wi th this In mind, the assemblage was divided Into roof ing, sidi ng and light framing, floor ing, and heavy framing nai ls, as seen In Figure 3.4.

The closest flt between a mode l and the archaeological assemblage Is computed by summ ing the dif ferences of each category as seen In Table 3.7. The mode l with the lowest score is chosen . The closest fit mode l appears to be a timber frame structure with a tin roof . Figure 3.5 super imposes this mode l with the Garner site nai l assemblage .

43 Table 3.6: Na l ls from the Garner Site Outbuilding

Nail Length N

1.25 (3d) 4 2.3 1.50 (4d> 4 2.3 1.75 <5d> 25 14.3 2.00 <6d) 40 22 .9 2.25 <7d> 2 1.1 2.50 52 29 .7 2.75 (9d) 2 1.1 3.00 ( 10d) 28 16.0 3.25 (12d) 11 6.3 3.50 (16d> 3 1.7 >3.50 (16d+ ) 4 2.3

TOTAL 175

The largest di fference between the mode l and the Garner assemb lage

is In the nai l length category of heavy frame . Th is leaves some doubt as

to whether the structure was timber or bal loon frame . The samp le size

, as we ll as how the structure was dismant led, may account for the dif ferences between the mode ls and the Garner assemb lage . But prel lminarl ly, lt appears that the Garner structure was timber frame .

44 Garner Wood Floor

Percent

60

60

40

30

20

10

0 1 2 3 4 Nail Length Category

B Nail Frequency

Key : Nai l length category 1 =roof ing Na i l length category 2 = siding and light framing Nail length category 3 = floor ing Nai l length category 4 = heavy framing

Figure 3.4: Distribution of Nal ls In Length Categor ies for the Garner Assemblage

45 Timber Frame vs. Garner Wo od Floor

Percent 80

60

<40

30

20

10

0 1 2 3 4 Nail Length Category

B Timber Frame IZilllGarner

Tin Roof

Key : Nail length category 1 =roof ing Nai l length category 2 = siding and ligh t framing Nail length category 3 = floor ing Nail length category 4 =heavy framing

Figure 3.5: Dlstrlbutlon of Nal ls In Length Categor ies for the Garner Assemb lage Compared wi th Dlstrlbutlon for a Timber Frame Mode l

46 Table 3.7: Frequencies of Garner Na l ls In Functional Categor ies Compared to Log , Timber , and Ba l loon Frame Mode ls

------Garner Log Timber Bal loon Category N % % D % D % D

------1 29 16.6 26 .7 10.1 18.7 2.1 19.0 2.4 2 94 53 .7 23 .8 29.9 54 .2 0.5 46 .4 7.3 3 30 17.1 29 .7 12.6 20 .8 3.7 21 .1 4.0 4 18 10 .3 19.8 9.5 6.4 3.9 13.5 3.2

Totals 62 .1 10.2 16.9

Category 1 = roof ing Category 2 = siding and light framing Category 3 = floor ing Category 4 = heavy framing

Locust Grove

Locust Grove is a late 18th century plantat ion/farm site located near Louisvil le, Kentucky . In 1987 , the si te of a structure was excavated, reveal ing a conti nuous limestone foundat ion measur ing about 16 by 16 feet , and a hearth and firep l ace base . A late 18th or early 19th century construction date has been proposed CYoung 1988) . A total of 645 complete nai ls was recovered in the excavat ions. Table 3.8 shows the frequencies of the dif ferent nai l lengths and Table 3.9 shows the frequencies of roof ing, light framing and siding, floor ing, and heavy framing nai ls. Th is does not seem to compare we ll with any of the mode ls

47 Table 3.8: Nal ls from Locust Grove Cab in

Nai l Length N

1.00 <2d) 13 2.0 1.25 (3d) 71 11 .0 1.50 (4d) 206 31 .9 1.75 <5d) 105 16.3 2.00 (6d) 42 6.5 2.25 (7d> 33 5.1 2.50 (8d) 31 4.8 2.75 (9d) 58 9.0 3.00 <10d) 32 5.0 3.25 <12d) 38 6.0 3.50 (16d) 7 1.1 >3.50 (16d+ ) 9 1.4

TOTAL 645

Table 3.9: Frequencies of Locust Grove Nal ls in Funct ional Categor ies

Category Length range N roof ing 1.50-1.75 382 59.0 siding & light framing 2.00-2.50 106 16.4 floor ing 2.75-3.00 90 13.9 heavy framing 3.25+ 54 8.3

48 devel op ed, possibly because of the overwhe lming number of roof ing nai ls.

If roof ing nai ls are removed, the Locust Grove sample shows the

least difference with the log model . It appears , then , that a log

structure wi th a shake roof Is the closest fit for the Locust Grove nai l

assemblage

.

Conclusions

Wh ile prel iminary , this research has shown that it is possible for researchers to identify Jog, timber frame , and bal loon frame structures

from archaeological nai l assemb lages . The mode ls are extremely simple, and have been bu i lt from a data base of the most simple structures that could be located, ou tbui l dings and single pen dwe l lings . Al l possible permutations, such as a clapboarded Jog structure , have not been considered here . More data are necessary before more comp lex models can be constructed .

Binford <1983> has stated that archaeologists need to train themse lves to pay attention to the ways In wh ich behav ior modifies material surroundings. In historical archaeology , there are numerous opportunities to do this, so that It shou ld be possible to accurately

Interpret the historical archaeological record. Thus far, historical archaeologists have re lied too heavily upon using documents as anal ogue mode ls for interpret ing past behav ior. It Is necessary to study more direct linkages between the obJ ects found In the archaeological record and the various behav iors and circumstances that resulted ln the manufacture , modi ficat ion, and eventual disposa l of those obJects.

49 Log vs Locust Grove Wood Floor

Percent 50 �------. 42.4 · 40 �------

30 -+------

10 +------

0 -'-----,....------" 2 3 Nail Length Category

� B Locust Grove � Log

No Roof

Key : Nall length category 1 =roof ing Nal l length category 2 = sldlng and light framing Nai l length category 3 = floor ing Nai l length category 4 = heavy framing

Figure 3.6: Distribution of Nal ls ln Length Categor ies for the Locust Grove Assemblage Compared wi th Distribution for a Log Structure Mode l

50 CHAPTER IV

RECYCLING AND DISCARDING BEHAV IOR

Introduction

Th is chapter Introduces a way middl e-range research , specifical ly experiments and ethnoarchaeology , can be used ln historical archaeol ogy to Identify how a nail assemblage Is transformed and patterned as nai ls are bent when a structure is dismant led to recycle wood and when a structure Is torn down and materials discarded. The exper iments and ethnoarchaeological nai l assemb lages descr ibed here focus on Ident ifying the pattern produced when a structure Is torn down to recyc le the wood . The purpose of the experiment Is simple: to de termi ne what effect nai l length (pennyweight ), the method used to remove the nai ls, and board thi ckness have on how nai ls are altered dur ing the raz ing of a structure . Ethnoarchaeologlcal assemb lages are then used to Identify recycl ing and discard patterns In archaeological nai l assemb lages.

Me thods

Vernacu lar carpenters were emp l oyed to bu ild and tear down a simulated section of a simple outbui lding In order to adequately represent construction and raz ing activit ies. A four by four foot structural frame was bu i lt of 2x4 Inch , with 2x4s placed on 16

Inch centers to represent wa ll studs or floor Joists.

51 Fo� the fl�st part of the exper iment , 1x8 Inch pine boards were placed on the f�ame perpendicular to the studs . Slx penny common wl�e nai ls we�e used to fasten the boards to the frame . Then using a crowbar , boards were loosened and final ly removed f�om the frame .

Some na ils were straightened and dr iven back through the wood and removed, wh ile others were pu l led direct ly from the frame and board structure with a claw hamme� . The experiment was then repeated, first using eight and then ten penny nai ls.

The second exper iment fastened one-half by slx inch beve led pine siding and beve led cedar siding of the same size, first with six penny , then with eight penny nai ls. As in the first experiment, a crowbar and claw hammer were used to remove the siding and/or nai ls.

Ten penny nai ls were not used on the sidi ng since the eight penny nai ls tended to sp l it the wood .

Generally the pu l led na ils were bent in single gentle arcs, al though a few s-shaped bends resul ted. On ly three examp les were visibly twisted as we ll as bent in gentle arcs so this characterist ic was not used in the analysis, especial ly since this twisting may not be de tectable in archaeological ly der ived nai ls.

Other na ils were left visibl y unal tered. A method was dev i sed to measure how much each nai l was bent, so that the effects of nai l length, board thi ckness , and pu l ling method on altering a nail could be determined (pull ing method be ing either the board was removed from the frame and nai ls hammered out the back or a claw hammer was used to pu ll the nails direct ly from the structure >. It was decided that

52 measur ing the max imum height of the curve of bent nai ls adequately

represents the degree of al teration. In cases of s-shaped curves ,

both curve heights were added together .

The experiments were designed to test two hypotheses. First , It

was hypothesized that the shorter six penny nai ls wou ld be less

al tered than longer eight and ten penny na i ls and that this effect

would be exaggerated with th icker wood . It was also hypothesized that

the method of pu l ling wou ld have a slgnlflcant effect on nai l

alterat ion, with pu lling boards from the structure then remov ing nai ls

from boards simulating recycling behav ior, and pu l ling nai ls direct ly

from the structure close ly approximat ing discard behav ior.

Compar i sons of raw means and a two-factor ial analysis of variance were

emp loyed to de termine if the amount of al terat ion of the nai ls (curve

height) Is a function of nai l length , board th i ckness , and method of

pu lling. So for each nail, max imum curve height, pennywe ight , board

th ickness , and pu l ling techn i que were recorded, with a total samp le

size of 143 nai ls.

Analysis and Results

Table 4.1 presents the means , minimum , and max imum heights of

curves , and standard dev iations for slx, eight, and ten penny nai ls.

It Is obvious that the longer nai ls were bent more severely than the shorter six penny nai ls. Al l pairwise compar isons further support

that there are significant differences In curve height at the .05

leve l between the three nai l sizes. Tabl e 4.2 shows the mean height

53 of the cu�ves fo� one Inch and half inch thick wood . along with the ranges and standard dev iat ions. A T-test also shows these to be significantly diffe�ent at alpha = .05. These tests are taken as support for the fi�st hypothesis that pennywe ight and board thi ckness have an effect on nai l al teration. Final ly, Table 4.3 displays the means , ranges, and standa�d deviations fo� the two pu lling techn iques.

Th is appea�s to suggest that how the nai ls were pu lled does affect the amount of nai l al terat ion.

A two-way ana lysis of var i ance was used to test the effect of nai l length and boa�d thi ckness . Table 4.4 shows that pennyweight, and the combination of pennywe ight and board thi ckness significan tly affect how nai ls a�e bent . Th is Is shown by the F stat ist ic and low probabi l ity val ues (p = .0143, p = .0293>

. A look at the means , �anges , and standa�d dev iations for each of these t�eatments on nai ls further illustrates th is poi nt. Note the sma ll

Table 4.1: Mean Heights for Slx, Eight , and Ten Penny Nal ls

Pennywe ight N Mean He ight Min Max Standard Dev iat ion

6d 48 0.8 0 6.1 1.497 8d 64 1.7 0 6.3 1.438 10d 31 2.4 0 8.2 1.672

54 Table 4.2: Mean Curve He ights for 1/2 and 1 Inch Board Th i ckness

Th i ckness N Mean He ight Min Max Standard Dev iation

1/2 64 1.1 0 6.2 1.407 1 79 1.9 0 8.2 1.677

Table 4.3: Mean Curve He ights for Pu l ling Method

Method N Mean He ight Min Max Standard Dev iation board 48 0.9 0 6.1 1.592 na il 95 1.9 0 8.2 1.536

55 standard dev iat ion and range for six penny nai ls

wi th

board th i ckness of one-ha lf lnch . Most of these nai ls, 21 out of 32 ,

exh ibited no bending at al l, as contrasted with the ten penny nai ls

where on ly three out of 31 nai ls were left unal tered dur ing raz ing of

the simulated structure .

Table 4.4: General Linear Mode ls Procedures

------Dependent Variable: HT

Source df Sum of Squares Mean Squares Mode l 4 63 . 2379 15.8095 Error 138 304.7729 2.2085 Total 142 368.0109

Mode l F = 7.14 PR > F = .0001

R-Square c.v. Root MSE HT Mean .1718 95 .0414 1.4861 1.5636

Source df Type III SS F value p > F LEN 2 19.3603 4.38 .0143 THK 1 7.0560 3.19 .0771 LEN*THK 1 10.7123 4.85 .0293

Ethnoarchaeol oglcal Samples

Dur ing the experiments, nai ls pu lled by remov ing boards from the structure frame were hammered from the back of the wood . If nai ls were bent after boards removed, then the nai ls were straightened

56 Table 4.5: Mean Heights for Pennywe ight by Board Th i ckness

------LEN THK N Mean He ight Min Max Standard Dev iation

------6d 1/2 32 0.4 0 3.1 0.836 6d 1 16 1.6 0 6. 1 2. 146 8d 1/2 32 1.8 0 6.2 1.545 8d 1 32 1.7 0 6.3 1.346 10d 1 31 2.4 0 8.2 1.673

before be ing hammered out the back . When the exper imental structure was torn down to recyc le thewood , more care was taken In remov ing boards from the structural frame . The vernacu lar carpenter pu l led nai ls directly from the structure dur ing raz ing to discard the materials. With adequate samples with comparab le ranges of nai l sizes, each of these two methods of remov ing na ils shou ld result In distinct , identifiable patterns.

Two ethnoarchaeoJoglcaJ assemblages from known contexts are used to illustrate how nai ls from sites where wood was recycled differ from nai ls from sites where a structure was torn down and materials discarded. The first assemblage ls from the Garner site In Blount

County, Tennessee. The area of an outbui lding constructed around 1905 and torn down In the 1960s was tested. When the structure was dismantled, the wood was recyc led to bu ild a ch i cken house . From this outbuilding site, a total of 195 complete nai ls was col lected. Of these , 186 were In adequate shape to measure al terat ion. For each of these nai ls, length and curve he ight were recorded.

57 The second archaeological assemb lage Is from the Gibbs House site

located In Knox County , Tennessee. The area beneath the front porch

was systemat ical ly surface co l lected. The porch has been rebui lt

twice , and both times the wood was discarded. A total of 283 complete

anal yzable nai ls was recovered from beneath the porch . For each , nai l

length and curve height were recorded.

Since the experiments show that nai l length affects curve height,

adJusted alterat ion was computed by dlvldlng curve height by nai l

length for both ethnoarchaeologlcal assemb lages. Table 4.6 shows the

dlstrlbulton of nai ls In the adJ usted curve height categor ies from the

two sites. A Kol mogorov-Smlrnov test shows that the two assemblages

are significantly di f ferent

at alpha = .05 (i.e. the two samp les come from dif ferent populations>.

Na l ls from structures torn down to recyc le wood exhibit a pattern which Is dif ferent than nai ls from structures that were destroyed and

the materials discarded. Both ethnoarchaeologlcal sites yielded a

relatively large samp le of na ils, residues which exhlblt patterns wh ich resulted from radical ly di f ferent act ivities.

58 Table 4.6: Dlstrlbutlon of Na l ls ln AdJusted Curve He ight Categor ies for the Recyc led and Discard Sites

------AdJ usted Recyc led Discarded Curve He ight f cum f cum D

------0 81 .435 45 .159 .276 .01- .05 56 .736 76 .428 .308 .06-.10 28 .887 74 .689 .198 .11-.15 13 .957 62 .908 .049 .16-.20 6 .989 26 1.0 -.011 .21-.25 2 1.0 0

186 283

alpha = .05 D = .1284

Conc lusions

The exper iments and the examinat ion of archaeological and ethnoarchaeol ogi cal assemb lages were de signed to answer quest ions concern ing the format ion of the archaeological record with respect to nai ls. Addi tional ly, It has been documented that such middl e-range studies in hlstor lcal archaeol ogy are both possible and product ive.

Careful analyses of nai l assemblages can yield Important

informat ion concern ing act ivities wh ich took place on a site. This study has shown that a particular pattern in nai l assemblages wl ll result from situat ions where structures were torn down In order to reuse the wood and/or nai ls to bu ild other structures, and that one must carefully consider the factor of nai l length when analyzing nai l alteration. Th is study Is a step in understanding the formation

59 processes affecting a nai l assemb lage , and ldent lflng the ac t ivities that produce part icular nai l patterns .

Al l factors affect ing nai l assemb lages have not been considered here . Further exper imental and ethnoarchaeologlcal work Is necessary before we can nai l down the pattern , and br ing historical archaeol ogy to the forefront of theory bu ilding.

60 ��� v

TWO ARCHAEOLOGICAL EXAMPLES : THE GIBBS HOUSE SITE AND THE OLI VER SITE

Introduction

Using the methods deve l oped ln this research , two archaeological

nai l assemb lages are ana l yzed and interpreted. The first assembl age

ls from the Gibbs House site, and the second ls from the Ol iver site.

Both si tes are located in Knox County , Tennessee and both date to the

early 20 th century . Three quest ions are

addressed through the nai l analysis. First , the si tes are identified

as either the remains of structures or dumps. Second, if the rema ins

are from structures, the type of structure (Jog, timber frame , or

frame> ls Ident ified. Final ly, what happened to the structure , whether the wood was recycled when the bu ilding was razed, Is

Invest igated.

The Gibbs House Site

The Gibbs House site <40KN124> is located In northeast Knox

County , Tennessee. Currently, the Nicholas Gibbs Historical Society

owns and maintains the property. The tract was first settled by

Nicholas Gibbs In the early 1790s.

According to fami ly tradi tion, he bu ilt a log house on the site abou t

1792 . Th is date is supported by the archaeol ogy and the arch itectural study . Th is Jog house still stands on the property . A frame pen was added on the east side of the Jog house at a fairly early date and a

61 kitchen ell was added around the middl e of the 19th century . The

kitchen el l and frame pen were torn down in 1959 and new rooms added.

On ly one outbuilding Is extant ; however , th is bu ilding has been moved

from its or iginal locat ion . Th is Is a log bu ilding

that Is currently used as a storage shed. The Gibbs descendan ts

be l ieve that this structure ls the or iginal Jog smokehouse bu ilt by

Nichol as Gibbs.

The Gibbs farm remained In the fami ly until 1971 . Mrs. Ethel

Gibbs Brown , a descendant of Nicholas Gibbs , was born on the property

and lived there unti l she was nine years ol d. She drew a map of the

property as she remembered it from her ch ildhood . It

is th is map , and informat ion from other 20 th century residents of the

property that has hel ped to direct the test ing strategy of the Gibbs

si te house lot.

The Un iversity of Tennessee has conducted four seasons of test

excavat ions at the Gibbs House site in 1987 , 1988 , 1989 and 1990 .

Th is research has been carr ied ou t under the direction of Dr . Char les

H. Fau lkner. A maJor focus in the research was to locate and identify

the outbui l dings and house lot act ivity areas associated wi th the early

log dwe lling

In 1989 , 15 3 by 3 foot test un its were excavated In the area

reported to have been the locat ion of the or iginal log

smokehouse bu i lt by Nicholas Gibbs, and a later frame smokehouse bu ilt

by John Gibbs around 1900

. Beneath a dark loam humus were strata and

62 lenses with heavy concentrations of cinders and ashes, indicat ing that

dump ing took place in the area . Add i tional ly, two large limestone

blocks were found in situ and were likely footers

for the frame smokehouse . Very heavy concentrat ions of coal and

cinders were found ln the units west of the footers ln a gu l ly cut by

an early path , and in a depression north of the footer stones . Ev idence Is fairly strong supporting the area

tested as the locat ion of a structure , but evidence also suggests that

the area was used as a dump .

Nai l Analysis and Results

From the 15 test units, a total of 680 nails ident ifiable as to

length and al terat ion state was recovered. Additional ly, five wire tacks , one handwrought sp ike, 106 cut nai l fragments, 178 wire nai l fragments, and 26 un identified nai l fragments were recovered. Of the complete nai ls, 619 are wire, 57 are cut, two are hand wrought, and two are un ident ified. Most of the complete nails were recovered in the upper two levels. Level 1 contained 379 nai ls and level 2 contained 234 nai ls. Figure 5.1 shows the distribution of the complete nai ls In the 15 units along with the locations of the path , Feature 16 and the two limestone pier stones.

63 AREA D

GIBBS HOUSE SITE

35

GRID NORTH Feature 16 t

8 teet

28 38 25 29

n=l6 e = pier stones

32

27

n=l3

34 37

Figure 5.1: Distribution of Nalls ln Un its ln Area D at the Gibbs House Site

64 Of the comp lete nai ls ident ified as to alteration state, 330 are

pul led, 222 are unal tered, and 128 are cl inched. Tables 5.1 and 5.2

compare the Gibbs nai ls to nal ls from bu lldlng and dump sites. As the

tables show , nai ls from the 1989 field season test units at the Gibbs

House site were most likely deposited dur ing the construct ion and

raz ing of a bu lldlng, as we ll as dur ing some dump ing wi th coa l and

cinders around the structure .

The area around the early path became a receptac le for refuse ,

especial lY coal and cinders . Another area that was

obv iously used to dispose of refuse was a depression to the north of

the excavat ion block ln the areas of un its 26 and 31 . Nal ls from the

un its wi th the path and the feature

38> , as wel l as nai ls from un lt 35 , to the north of the block of

units, were removed from the sample, as these nai ls were most likel y

deposited both du ring construct ion and raz ing of the structure and

dur ing dump ing around the structure . The remainder of the nai ls,

lnslde the area of the pler supports, was analyzed to Identify what

kind of structure occup ied the area . Informant data suggest that both

smokehouses were situated in the same locat ion

. The later frame smokehouse was supposed to have

been bu ilt over the site of the earl ier log smokehouse after the log

structure was moved circa 1900 . The pauc ity of cut and handwrought

nai ls suggests that the or iginal log smokehouse must have been located elsewhere .

Mode ls showing the frequenc ies of nai l lengths were generated for

9 by 9 foot structures approx imately 7 feet hlgh. The dimensions are

65 Table 5.1: Gibbs Nal ls versus Construction Sites

------u p c ------l ------(85.3) (118.8> (49.2)1 Construction sites 98 116 33 I 247 ------l ------(234.7) (327.2) <118 .1)1 Gibbs assemb lage 222 330 128 I 680 ------1 ------totals 320 446 161 I 927 ch i square = �.7826 df = 2 p = .0555

Table 5.2: Gibbs Nal ls versus Dump Sites

u p c ------l ------<148 . 1) <367.6) (126 .3)1 Dump sites 83 127 132 I 642 ------l ------(156 .9) <389.4) (133 .7) 1 Gibbs assemblage 222 330 128 I 680 ------1 ------totals 305 757 260 I 1322 ch i square = 74 . 7864 df = 2 p < .0001

66 based on Informat ion from a former resident of the Gibbs house . These mode ls are then compared to the nai ls from the excavat ion units.

Figure 5.2 displays the frequencies in the four nai l-length groups for the Gibbs nai ls and for 9 by 9 foot timber frame and bal loon frame mode ls wlth tin roofs . The di fferences between the Gibbs structure and the timber frame or ba l loon frame mode ls are close , mak ing it difficult to determine whe ther the Gibbs structure was timber or ba l loon frame . However , It appears that the Gibbs structure was timber frame .

The final quest ion concern ing the Gibbs structure Is If the wood from the bu ilding was Intended to be recyc led after the bu ilding was dismantled. To do this, the complete nai ls were analyzed as to amount of bending. A total of

233 complete unal tered and pu lled nai ls was recovered from un its 25 ,

27 , 29 , 32 , 34 , 36 , 37 , and 39 . The max imum height of the curve of these nai ls was recorded. Because nai l length affects al teration, al teration was converted to curve height divided by nai l length .

Table 5.3 shows the percentages of nai ls In the di f ferent adJusted curve height categor ies for the Gibbs assemblage and for the recycled ethnoarchaeologlcal assemb lage . A Kol mogorov-Smlrnov test shows that the two assemb lages are not from di f ferent popu lations

67 Gibbs Structure vs Models Wood Floor

Percent 70 .------�

eo 1------,

50 1------,

40 1------i

30 1------i

20

10

0 2 3 Nail Length Category

- Glbba R Timber Frame wWHBalloon Frame

Tin Roof

Key : Nail length category 1 =roof ing Na i l length category 2 = siding and ligh t framing Nai l length category 3 = floor ing Nai l length category 4 =heavy frami ng

Figure 5.2: Frequenc ies of Nai l Lengths from the Glbbs House Na lls Compared wi th Al l Mode ls

66 Table 5.3: Frequencies of Nal ls ln AdJusted Curve He ight Categor ies for the Gibbs Assemb lage and for a Recycled Assemb lage

AdJusted Recycled Gibbs CUrve Height f cum f cum D

0 81 .435 104 .446 -.001

.01-.05 56 .735 34 . 592 .144

.06-.10 28 .887 37 .751 . 136 .11-.15 13 .957 22 .845 .112

.16-.20 6 .989 25 .952 .037

.21 - .25 2 1.0 10 . 995 .005 .26+ 0 1.0 1 1.0

186 233

D = .1337 not significant at alpha = .01 marginal ly significant at alpha = .05

The Ol iver Si te

The Ol iver site C40KN103> Is located ln southern Knox County,

Tennessee . A house mound containing rubble from a ch imney fal l was excavated In 1989 and 1990 as part of the Tennessee Department of

Transportation Pe lllsslppl Parkway proJect . According to historical documents and Interv iews with Informants, the Ol iver site represents the remains of a tenant house bu ilt around the turn of the century .

It was described as be ing a hal l -and-par lor type house with board and batten weatherboarding and a central ch imney . The structure was probably razed ln the 1930s.

69 Nai l Analysis and Results

A total of 25 one by one me ter and one 1/2 by 1 meter test units

excavated in the house mound in 5 centimete� levels yielded 611 nai ls

and nai l f�agments. No In situ pier supports we�e found. The exact

size of the structu�e is undete�mlned. A nea�by extant tenant house ,

measu�lng app�ox imately 30x9 feet

Is used as a mode l for the dimensi ons of the Ol iver structu�e because

of the appa�ent simi la�ity of this st�uctu�e and the desc� iptlons of

the Ol ive� house .

A total of 372 <95.6%> of the comp lete nai ls a�e wire , 16 <4.1%>

a�e cut , and one ls unidentified. Of the na i l f�agments, 131 (59%>

a�e wl�e. 21 (9.5%> a�e cut, and 70 <31 .5%> a�e unidentified

f�agments. None of the cut nai ls exh ibited squeez ing of the shank

be low the head indicat ive of ea�ly mach ine-headed nai ls. Al l of these

nai ls fit well within the date �ange of circa 1900 to 1940 .

The si te is clea� ly Identified as the �emains of a st�uctu�e . and

the f�equenc les of unal te�ed, pu l led, and cl inched nai ls exhibit the

patte�n assoc iated wi th const�uctlon act ivities. Table 5.4 compares

the f�equenc ies of unal te�ed , pul led, and cl inched nai ls f�om Ol ive� wi th na i ls f�om const�uctlon si tes. A ch l squa�e test shows no

slgnlflcant dlf fe�ence at alpha = .05 be tween the Ol iver nai ls and

const�uctlon sample nai ls .

70 Table 5.4: Frequenc ies of Unal tered , Pu lled (p) , and Cl inched Nal ls of Ol iver and Construction Sites

------u p c ------l ------Ol iver nai ls 164 169 55 I 388 ------1 ------Constructlon sites 98 116 33 247

------262 285 88 635

------chi square = .6971 df = 2 p = .7057

The most Interest ing quest ion concern ing the Ol iver nai l assemb lage Is the type of structure It might represent . Several

Informan ts descr ibed the structure In de tai l, as they remembered it.

The informants were able to descr ibe the placement of windows and doors, the type of weatherboarding, and addi tions . None were ab le to tel l if the structure was timber frame , bal loon frame , or log. The mode ls deve l oped In this study are not ab le to Identify spec ific architectural features such as number of windows and doors , or siding type , bu t can ident ify whether the structure was log or frame .

Figure 5.3 shows the distribution of nail lengths for the Ol iver nails and for log, timber-frame , and ba l loon frame mode ls measuring 30 by 9 feet . Table 5.5 presents the Ol iver nai l and mode l nai l length frequenc ies for timber frame and ba l loon frame structures with tin roofs. The closest fit is with the timber frame model . The Ol iver nai ls clear ly fal l within a frame-type weatherboarded structure.

71 Table 5.5: Frequencies in Functional Categor ies for Ol iver Nai l Assemb lage and Log, Timber Frame , and Ba l loon Frame Mode ls with Tln Roof

------timber bal loon 01 1 ver log frame frame function N % % % %

------roof ing 108 28 .4 22 .5 9.2 6.0 siding & light frame 175 46 .1 29 .2 70 .0 67.2 flooring 75 19.7 39.9 13.9 9.0 heavy frame 22 5.8 8.4 6.9 17.8

As seen ln Table 5.5, a great deal of dispar ity ex ists ln the category of roof ing nai ls <1.5 - 1.75 inches , 4d and 5d nai ls> . It ls likely that the Ol iver house had a shake roof wh ich was removed in large sections and carried away from the site either when a new roof was appl ied, or when the structure was dismantled. If this occurred , relatively few shake roof ing nai ls would enter the archaeological record at the site of the structure . Table 5.6 compares the Ol iver nails with mode ls without roof ing nai ls for timber frame and bal loon frame structures . Again, the timber frame mode l Is closest to the

Ol iver assemb lage .

From historical documents and Interviews , and from the ana lysts of the nai l assemblage , it appears that the Ol iver house was constructed around 1900 . From historical documents, what happened to the bu ilding after 1930 ls unclear . Analysis of the degree of alteration exh ibi ted by the Ol iver nai ls Indicates what happened to the structure .

72 Oliver vs Models Wood Floor

Percent 80

70

60

60

40

30 20

10

0 1 2 3 4 Nail Length Category

- Oliver B Log [t�:M Timber Frame B Balloon Frame

Tin Roof

Key : Na il length category 1 =roof ing Na il length category 2 =siding & light frame Nail length category 3 = floor ing Nail length category 4 =heavy frame

Figure 5.3: Distribut ion of Nalls ln Length Categor ies of Ol iver Na lls and Log, Timber Frame , and Bal loon Frame Mode ls wl th Tin Roof

73 Table 5.6: Frequencies In Functional Categor ies for Ol iver Nai l Assemb lage and Timber Frame and Ba l loon Frame Models without Roof ing Nal ls

timber bal loon Ol iver frame frame function N % % % sldlng & light frame 175 64 .3 77.9 70 .8 floor ing 75 27 .6 15.4 9.5 heavy frame 22 8.1 6.7 18.8

A large portion of the nal ls recovered from the excavation Is vlslbly unal tered . Table 5.7 compares the frequencies of alteration categor ies for the Ol iver assemblage and the recycled ethnoarchaeologlcal assemb lage . A Kol mogorov-Smlrnov test

shows that these two assemb lages are not slgnlflcantty different . Th is analysis Indicates that the wood from the tenant house was Intended for recycl ing when the bu lldlng was dismant led.

Conc lusions

Three quest ions concern ing nai l assemb lages from the Gibbs House slte and the Ol iver site have been addressed through the methods deve l oped ln th ls study . Nal ls from the 1989 test excavations at the

Gibbs House site <40KN124) have been analyzed to ascertain wh ether the area tested was used as a dump or lf a structure stood at the location. The analysis of the nai ls clear ly shows that a frame type

bu ilding stood at the site. The nai ls from

74 Table 5.7: Frequencies of Na l ls In AdJusted Curve He ight Categor ies for the Ol iver Assemb lage and for a Recycled Assembl age

AdJ usted Recyc led Ol iver Curve Height f c� f c� D

------0 81 .435 165 .495 -.006 .01-.05 56 .735 41 .618 .118 .06-.10 28 .887 65 .813 .074 .11-.15 13 .957 29 .900 .057 .16-.20 6 .989 23 .969 .020 .21-.25 2 1.0 10 1.0

186 333

D = .1245 not significant at alpha = .05

the excavat ion uni ts were depos ited when the structure was bu ilt and torn down , and dur ing dump ing act ivities that occurred around the structure . Nai l analysts also Indicates that when the structure was final ly dismantled, the wood was Intended to be recyc led.

Additional ly, almost al l of the nai ls were wire nai ls dat ing after

1880

like ly, the or iginal log smokehouse did not sit In the locat ion of the

1989 test area. These flndlngs corroborate most of the informan ts'

informat ion, i.e. that an early 20 th century structure occup ied the area , and support Faulkner's <1991b> conc lusions concern ing act ivities wh ich occurred In th ls tested area of the Gibbs houselot.

The anal ysis of the nai ls recovered from the excavat ion uni ts at the Ol iver tenant house supports da ta from informants and from the

75 documenta�y �eco�d about house type and date and const�uctlon. In addi tion, based on the nai l analysis, lnfe�ences can be made about the

�az lng act ivities which occu��ed at the site, and about the occupantslbu ilde�s of the Ol iver tenant house .

The fact that a hal l -and-pa� lo� style tenant house appea�s to have been bu i lt wi th a combinat ion of Joinery techniques suggests that even In the Knoxvil le area where nai ls were easi lY avai lable at the turn of the century , and at a time when ba l loon f�amlng was used fo� popu la� style housing

1984:127) , vernacu la� a�ch ltectu�e was st ill practiced. Most likely, tenants who lived at the Ol ive� fa�m either aided in the construction o� const�ucted thel� own homes .

Tlmbe� f�ame construction is an art i fact of 19th centu�y technology . Its persistence into the 20th centu�y in outbui ldings , such as the tu�n-of-the-centu�y McCo�kle wash house and grain house , is not part lcula�ly out of place . The use of what is essent ial ly 19th centu�y wood Joinery in dwe llings constructed ln the 20 th centu�y . wh ile not ent l�ely su�p� lslng, �equ l�es further study .

One posslblllty not researched here Is that the Ol iver tenant house was of •box • const�uctlon

Morgan <1990 ) suggest that ba l loon frami ng did not ga in wide acceptance In �ural areas ln East Tennessee unt il after the Civi l War .

Addi tional ly, Mo�gan <1990 > be lieves that in the 1890s- 1900 box construction became common for tenant houses . Box construction is flimsier than bal loon o� platform framing, and requl�es fewer heavy

76 structural nai ls since few or no wa l l studs are used. Unfortunately, because of the fllmsler construct ion, few box houses surv ive for study

today . Th ls makes test ing whether the Ol iver assemblage represents

the remains of a box house probl emat ic. At best , lt can be Inferred

that the Ol iver house was not bal loon frame , but either timber frame or box construction.

77 CHAPTER VI

CONCLUSIONS

Until very recently, middle-range research has been general ly

lack ing in histor ical archaeology

1990 ; Sanford 1991>. With middle-range research , progress can be made toward understanding and explaining the past . Binford has stated that he:

was led to the inescapable conc lusion that there ex i sted no way to deve lop archaeological methods of inference , except via the study of contemporary liv ing peop les, or by control led exper iments under laboratory condit ions, or by do ing archaeol ogy In situat ions whose dynamic component is historical ly documented .

Methods devel oped in th is research used ethnoarchaeologlcal and exper imental data, along wi th observat ions made on standing structures, to Ident ify dynamics wh ich create and pattern archaeological na i l assemb lages .

Arch itectura l mater ials such as br icks, mortar , window glass , and nai ls, often occur in very high frequenc ies on historical sites. For

Instance , even In South's <1977 > Carol ina Artifact Pattern , arch itectural artifact frequenc ies range from about 12 to 35 percent of the total assemblage . Host research has been aimed at determining manufactur ing dates of artifacts ln th is group . Unfortunately, very little research has been carried out to reconstruct how these mater ials move through the ir systemic context and enter the archaeological record.

78 Three methods for analyzing archaeological nai l assemblages have

been devel oped in this research . Two of the methods are designed to

make it possible to Identify the three arch itectural act ivit ies:

raz ing structures; recyc ling wood ; and discarding arch itectural

materials. Another method al lows for reconstruct ing the kind of

building that ex i sted at an

archaeological site. These methods have been successfully emp l oyed to

analyze and Interpret two archaeological nail assembl ages, one from

the Gibbs House site <40KN124> and the other from the Ol iver site

<40KN103> , both in Knox County , Tennessee .

The first probl em addressed in thls research was to distinguish

dump sites from sites of ephemeral structures, both of wh ich are

characterized by high frequencies of nai ls. To do this, nai ls from

ex isting dumps were col l ected and analyzed, and nai ls from known

bu ilding sites were examined. The frequenc ies of unal tered, pu l led,

and cl inched nai ls were compared between the two types of sites. Dump

sites were found to be character ized by relatively lowpercen tages of

unal tered nai ls and relatively high percentages of cl inched nai ls.

Converse ly, bu lldlng sites were found to have high frequenc ies of

unal tered nai ls and low frequencies of cl inched na i ls. The method of

analysis is simple and does not require much time to perform. Us ing

the method becomes probl emat ic wh en a site was used for both types of

act ivities

structure >.

For the second me thod , nai ls of di f ferent funct i ons

siding and ligh t framing, flooring, and heavy framing> were counted ln ·="'

79 standing log, timber frame , and bal loon frame structures. The

di f ferent nai l functions corre late with nai l lengths. These data were

used to generate mode l� where size of the structure, roof cover ing,

and floor ing could be varied. It was found that log, timber frame ,

and bal loon frame structures of the same parameters each exhibit

dist inctive patterns in proportions of nail lengths . The models,

hav ing been devel oped with a sma l l data base consisting of eight

standing structures, are coarse-grained and ln need of refinement .

Nevertheless , they have proved moderate ly successful In reconstruct ing

wh ether an archaeological nai l assemb lage represents a log, timber

frame , or bal loon frame structure .

The last method used data from ethnoarchaeologlcal sltes to

ident ify patterning In nai l assemblages characteristic of structures

torn down to recyc le wood or structures dismantled and mater ials

discarded. Based on observations made dur ing experiments on a

simu l ated portion of a structure be ing di smant led, it was thought that

the amount of bending, or degree of alterat ion exh ibited by nai ls

might help identify these patterns . First , exper iments were conducted

to de termine what effect nail length has on degree of alterat ion. It

\ was found that nai l length has a posi tive effect on nai l al terat ion.

To compensate for this effect , nall alterat ion was measured by the

height of the curve of a bent nai l, di vided by its length . Na lls from

ethnoarchaeological si tes were co l lected and adJ usted al terat ion

compared. Nal ls from si tes where bu ildi ngs were razed and wood

recycled were altered dif ferent ly than nai ls from bu ild ing si tes where

the structure was torn down and materials discarded. Since on ly

eo complete nai ls were analyzed, future work might Include exper imental and ethnoarchaeological research to determine how frequently nai ls break when structures are dismantled In dif ferent ways.

Most of the research presented here centered on wire nai ls and

late 19th and 20th century structures, bu t previ ous research

1983) suggests that at least ear ly cut nai ls are more br ittle than later cut and wire nai ls. Consequently, more research Is necessary before the patterns of nail assemblages Identified here can be extended to Interpret early 19th century archaeological nai l assemb lages . The me thods presented here are effect ive for

Interpreting archaeological assemb lage s that date later than circa

1830 .

It has been demonstrated that middl e-range research can be an effect ive aid for interpreting historic site format ion processes .

Strong Inferences can be made when developed and tested through exper imental archaeol ogy and ethnoarchaeology . Historic archaeologists must devote greater time to bu ilding middl e-range theory or answers to nauest i ons that CountD wi ll remain Just-so stor ies.

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Wa lker , John W. 1971 Excavat ion of the Arkansas Post Branch of the Bank of the State of Arkansas . Sou theast Archeological Center, Division of Archeol ogy and Historic Preservat ion, Macon , Georgia.

Vlach , John 1976 The Shotgun House : An Afr i can Arch itectural Legacy . Pioneer America . pt . 1, Vo l. 8, No . 1, pp 47-56 ; pt. 2, Vol 8, No . 2, pp . 57-70 .

Young, Amy L. 1988 Management Plan for Locust Grove C15JF547 >. Paper presented at the Sympos ium on Oh io Valley Urban and Historic Archaeology , March 1988 , Char leston , West Virginia.

Young, Amy L. and Ph ilip J. Carr 1989 Bu ilding Middle Range Theory In Historical Archaeology wl th Nal ls. Paper presented at the Symposi um on Oh io Val ley Urban and Historic Archaeology , March 1989 , Cincinnat i, Oh io.

88 VITA

Amy Lambeck Young was born In Jacksonv ille, Florida on March 7,

1956 . She attended pub l ic schools In Jacksonvi lle, Birmingham, Alabama , and Lou isvi lle, Kentucky and graduated from Waggoner High School In

February 1972. She earned a Bache lor of Arts ln Anthropol ogy at the

Un i versity of Louisville ln May , 1988 . In August , 1988 she entered The

Un i versity of Tennessee , Knoxville and ln May 1991 rece ived a Master of

Arts degree ln Anthropology .

89