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22 Bull. Hist. Chem. 8 (1990)

15 nntn Cn r fr l 4 0 tllOt f th r h npntd nrpt ltd n th brr f th trl St f nnlvn n thr prt nd ntn ntl 1 At 1791 1 frn 7 p 17 AS nntn t h 3 At 179 brr Cpn f hldlph 8Gztt f th Untd Stt Wdnd 3 l 1793 h ntr nnnnt rprdd n W Ml "njn h Cht"Ch 1953 37-77 h pn pr dtd 1 l 179 nd nd b Gr Whntn th frt ptnt d n th Untd Stt S M ntr h rt US tnt" Ar rt Invnt hn 199 6(2 1- 19 ttrfld ttr fnjn h Arn hl- phl St l rntn 1951 pp 7 9 20h drl Gztt 1793 (20 Sptbr Qtd n Ml rfrn 1 1 W Ml rfrn 1 pp 7-75

William D. Williams is Professor of at Harding r brt tr University, Searcy, Al? 72143. He collects and studies early American chemistry texts. Wyndham D. Miles. 24 Walker their British cultural heritage. To do this, they turned to the Avenue, Gaithersburg, MD 20877, is winner of the 1971 schools (3). This might explain why the Virginia assembly Dexter Award and is currently in the process of completing the took time in May, 1780 - during a period when their highest second volume of his biographical dictionary. "American priority was the threat of British invasion following the fall of Chemists and Chemical Engineers". Charleston - to charter the establishment of Transylvania Seminary, which would serve as a spearhead of learning in the wilderness (1). Transylvania thereby became the 16th college established in the United States and the first established west CHEMICAL ARTIFACTS of the Allegheny Mountains. In 1789, the school was moved to Lexington, the commer- h Apprt M t rnlvn Unvrt cial center of the region, and on 22 December 1798, it was merged with the Kentucky Academy to form Transylvania George M. Bodner, Purdue University University. At their first meeting, the board of trustees of the new university established several colleges, including a Medi- In March, 1775, Colonel Richard Henderson purchased 20 cal Department staffed by Doctor Samuel Brown, Professor of million acres from the Cherokees in an unsettled region of the Chemistry, Anatomy, and Surgery, and Doctor rdr British colony of Virginia then known as "Kan-tuck-ee" and Ridgely, Professor of Materia Medica, Midwifery, and Prac- hired Daniel Boone to mark a permanent trail into this territory tice of Physic. (1). In May of the same year, the legislature that was assembled In 1799, Professor Brown was authorized to use $500 to to organize a government for the new country voted to name it import books and other items for instruction in the Medical "Transylvania" (literally: across the woods), perhaps because College. Another $800 was allocated in 1805 for the purchase the Romans had used this name to describe a region of eastern of apparatus for teaching natural philosophy, which included Europe that also lay beyond a great forest ( chemical apparatus and a galvanic battery. The Board of When news of this purchase reached the Virginia assembly, Trustees, in a public announcement that fall, proudly pro- it was declared illegal because this body had reserved the right claimed the arrival of this apparatus, as well as additions to the to extinguish Indian title to lands within its borders. Between college library, which now totaled some 1300 volumes. 1775 and 1800, however, 150,000 people crossed through the In 1816, the trustees made an offer to Dr. Thomas Cooper Cumberland Gap and traveled down Boone's Wilderness to become the first professor of chemistry. The salary, how- Road into the region that the Virginia assembly eventually ever, was purposefully set so low that he would refuse the offer, established as "Kentuckee county". which he did. In 1818, Professor Charles Caldwell arrived One of the problems colonists faced was that of preserving from the Medical School at the University of Pennsylvania. ll t Ch 8 (199 3

r ltr Cldll nvnd th lltr t v h rnlvn Unvrt p t 1 W 3rd Strt n $5 fr th prh f b nd pprt fr th Mdl xntn A f f Cldll prh hv rvvd prtnt At th t th t f xntn lnd nldn v pp nd n Atd Mhn pr- nthr $ t th ll fr th prp nd n hd fr x n r nd prtbl Sr hrtr ddtnl $ rd fr phn thrht th Mt f th lltn hvr tr b t tr tr Sth In 11 Cldll nt t Erp t prh b vt t Erp n 139 nd tr ll prh fr th nd pprt tht frd th r f n f th fnt dl Elt Inttt lbrr n th ntr Cldll rt ( h lltn t n tnd trbt t th ffrt f rfr lnd rn h dd n 3 At 199 t th th t f rrvl n r nnl nd nxptdl f 91 rn jnd th flt n 193 prfr f prpt t tht prp rd th l f tht ttrph (th bl tn prdnt fr 19 t 195 nd rtrd n rnh vltn th lbrr f n lth nd ltrr prn 195 v prdnt fr d ffr A rl 191 hd lttl fnd thr nt th hlv f th bllr prt f th lltn trd n bt th jrt I pprd f th vr pr rptr nd pr- thr n r trd n vr dprtntl bnt hd t rdd pr n nndrbl nbr f th ht nd tr hlv h prrvtn f th lltn b r f th fthr f dn fr pprt dn t th rvvl pll nrtn n 1933 hn th d- f lttr - r hh n n thr nd prhp t n thr t ntld nd trd n n tt ld hv bn lltd rdl nd rtnl nd n tr Ovr prd f r bnnn n 199 rfr rn fvrbl n th rd prrt f th xntn brr lnd bld nd dntfd th pprt - hn p- n th r t n thr n th hl Untd Stt bl - nd prprd t fr dpl n t prnnt h In 1959 tl drbn th lltn pblhd ( In 13 tr brt tr t xntn t hlp rn p f hh n b btnd b nttn rfr h Knt l Elt Inttt n b n Mnr Mn t rnlvn Unvrt r Crln djnt prfr t rnlvn nd n 13 ltd t lrn rtr f th lbrr pl lltn t rnl- th hr f htr t tht ntttn In 139 h nd tr vn A f t drbd n tht tl r n th h pnt t f th r n ndn nd r Wtn nd ll bln th blpp nd dbl bll prhn b nd pprt fr ntrtn n th Mdl th r ld th nll hrtr th ltr- prtnt In h rrpndn tr rt (5 nt hn th pth-bll ltrtr th lpl r tn nn th ntr th p pprt fr W hv bht rt n fn b nd rt dl f xllnt rn th dnt f tr t dffrnt tprtr th pprt nd ntl nd thr dl rnlvn ll hn Mrt t pprt fr hn th rltnhp b- thr ntttn n r prt f th rld ll b bl t pr tn prr nd tprtr nd th ft lp dvl- th hr n th n f ntrtn In ft I hv n nn n pd b v In pt f th l th lltn bth Erp tht r pltl prprd t th drn dn xtnv nd n xllnt ndtn

A rlt f th prh n 11 th rnlvn Mdl prtnt drbd th "bt ndd dl hl n Ar" (1 tn 117 nd 159 5 tdnt nrlld n th Mdl prtnt t rnlvn nd th dr f tr f Mdn nfrrd n 11 f th rnlvn thrb prvdd th fndtn fr th prt f dn thrht h f th Sth h Mdl Cll ld n 159 rlt f bn- tn f pltl l nd n fr tdnt nd flt drftd t thr ntttn n t tht hd rn lrr thn xntn h thrd jr r f pprt fr th hl th prh f th hlp S ll lltn n 157 r ll th fndr f th Elt Inttt ntnd prvl fr hh th pprt hd rnll bn prhd A nfnt frtn f th pprt prhd fr n th Mdl prtnt n tll b fnd n th M f Erl hlphl Apprt n Old Mrrn ll n th r lnd rn

ll t Ch (199

Under the heading "Mathematical Construction," the inscrip- tion goes on to state:

It ll b brvd tht th ldr f th l rdtd nt dvn nd b-dvn ntnll n lnth fr t th tp t 33 nr th btt h dvn rrpnd n rltv lnth t th dffrn f th lrth [] f th nbr pld ppt th

It then goes into a protracted discussion of the mathematics of "logarythms" and notes that the distance between any two numbers on the scale is equal to the distance between any other pair that give the same ratio. Under the heading "Chemical Explanation", the inscription states: A nrl v f th h ppltn f th ltr l t Chtr fndd n th The collection includes a variety of items of chemical t prtnt ft n th n; hh tht ll bd hthr interest, including a balance purchased from Charles Cheva- pl r pnd tht ntr nt Chl bntn l lier; a voltaic pile 23.5" tall and 3" wide that contains 58 nt n ht r n ltpl fht tht hv th ntnt separate metal disks; an designed by Robert Hare rt t h thr And th rltv ht hv th fft of the University of Pennsylvania; an eudiometer designed by n frn ntrl pnd nd n prdn thr hl Volta; a large (10-qt. capacity) still; a small (1-qt. hn th r lld hl vlnt nd b xprd capacity) copper still; two large, three-neck Woulfe , n nbr rfrbl t n tndrd tn nt (h 5.5-6.5" in diameter and 8.5-12" tall; three small, two-neck hv l bn lld t ht b phlphr hv Woulfe bottles, 3.5" in diameter and 6.5" tall; two tubulated ppd tht n ll f hl bntn n nn t , 3" wide, 4.25" tall, with a 13" neck; one untubulated pl btn th ltt t f bd h th b f th , 6" wide, 8" tall, with a 20" neck; a precipitation At hr On th l th lt bnn ntt f about 6" tall on a solid glass base that tapers from a 4" width at hdrn tn th nt; nd ht t h xn b the mouth to 1.25" at the bottom; a 1-pt. capacity apothecaries' ht ntr nt bntn th hdrn t fr th hl vessel calibrated with both 1 oz. and 1/4 pt. gradations; a pnd tr xn ll b xprd b nd tr b 9 If demonstration cylinder 2" wide and 10.5" tall with a ground thrfr th ldr b pld tht nr th tp f t nd th surface at the top; a 500 cc with 5 cc th ppr xn th hl l b nptl tbl f th gradations; a 100 cc graduated cylinder with 1 cc gradations; hl vlnt hvn hdrn t rdx h 1 fr th a 1000 cc collection with 10 cc gradations; three vlnt fr Slphr fr An fr Sd 7 fr lime-glass 1-L volumetric flasks, one of which is calibrated at 1000 cc; 12 assorted bell jars, 4-8.5" diameter and 7-14" tall; three receivers to be used with vacuum pumps, each equipped with two tubes; and two tapered flasks, 3" diameter and 6.5" tall that can be sealed by inserting a glass sphere into the narrow mouth. One of the more intriguing items of chemical interest is a "2nd edition" of an "Improved Scale of Chemical Equiva- lents", or chemical slide rule, which was constructed by Lewis C. Beck and Joseph Henry and manufactured in Albany in 1828. This chemical equivalents scale contains the following inscription:

h Sl f Chl Evlnt th nvntn f hh d t r Wlltn t fltt th nrl td nd prt f Chtr h prnt l dffr fr th rnl n n th ptn f drn nt A ltn f th hl pprt nldn Wlf bttl -nrtn bttl fl rtrt nd prpttn l ll t Ch 8 (199 5

r 11 fr Slvr & & In rdr t dnh th lnth f brt; nd th nt f lpht f brt rltn fr th th l tn th xn t ntd f drn 1 nd dptn ll b 11 W n l rtn th ntt f 1 t f hdrn r pld ppt 1 n th ldr r th ntrt f brt nr t dp 5 1 15 r n thr rn rbn th t ht f n t f hh nbr f prt r rn f lpht f pth b pln thr f pld ppt 1 An tr nd xn ntr nt th bv nbr n th ldr ppt t lpht f pth nd bntn n vrl dfnt prprtn xn pld thn fndn th nbr f ntrt f brt ppt 1; tr ppt 1; 3 x ppt ; 3 tr ppt fnd th ptn f th tll lt rtn th 7 & & nt f d nd xd f th tl h ntrt f lvr vlnt t 17 nd nt f dr ntr d 5 nd xd f A r f "Expl nd Illtrtn" r thn prntd lvr 11 = 17 S l fnd 1 prt f lpht f brt t (In fr rtr lrt I hv nrtd drn nt f dr lphr d 3 nd brt r xd f br frl r tn n r brt And n ll hr W nt prfxd t th lt t thn ppd t nt f b ntd t dr d 1 Wtht vn th ldr th l h tht 5 th vlnt nbr fr rbnt f l [CCO3]; th btn A ht b xptd th l v d rlt fr prd- ntn f rbn d [COnt CO3] nd l [CO] fnd tn tht n b nfrd xprntll h th ht th vlnt f th frr t b nd f th lttr = 5 An f SO prdd fr vn ht f (O3 nd KSO r th ht f AO3 tht n b prdd fr vn ht f AO rd drbd th l fll (7

hr ll ntrnt th nvntn f r Wlltn hh thh nt drtl nrnd n th tl prfrn f hl prtn f rt nd ntnt n th lbrtr thr n ppln th nfrtn rt prv t n xprnt r ftrrd n ntrprtn nd xtndn t rlt

h l nl fl hn ppld t thrtl tn bd n nrt r npprprt thr Wthn th lt f xprntl rrr fr xpl t rrtl l- lt th prnt b ht f 3 n O3 It rr hvr hn ntr d d t ntn n vlnt f tr xd th "dr ntr d" nd th prnt b ht h nr- hl ld rl f tr nd dr ntr d n n ntrt lltd An prv lltn f pprt prhd t d- dnntn b vn th nbr n rn prt ntrt th b l f ph n l b fnd n th & t f h t rtn th nttnt f n nbr f rnlvn M h pprt n b dvdd nt t n rn r prt 1 fr xpl hv nl t pl 1 tr hnl nd ltrl S f th t n th n th ldr t rbnt f l; nd rbn d thn ppt frt tr nld n Arhd r; n Atd nd l 5; hh r th prprtn f th nrdnt n 1 hn; bl l r lndp rrr; n pprt fr Spp h t rtn th nttnt f 1 prt f dntrtn lln btn bd; t f lbr ntrt f n Mv th ldr tht 1 t ntrt f tb t h tht tr ll fll ntrnntn tb f n n hh fnd h l W bfr t ndtn n prpr- z r hp t th lvl; tr nd rr fntn t tnl f tr hn 1 tr n th l ppt 113 n th b d th v pp; t f frtn bl; l ldr; n ppt t 1 nd dr ntr d t 75 h dl t dntrt rtllrph fr; ht nd- nttnt f 1 prt f ntrt f n r thrfr 113 tn pprt; thr t f ht rfltr; hltt tr; 1 n; nd 75 dr ntr d = 1 hdrtr bln nftrd b Chvlr; hdrtt 3 Whn xn t th tp t n th ldr lpht f pth prdx pprt; t f Mdbr phr; n Ortd [KSO] t hh thrfr t vlnt nbr In rdr pprt fr rn th prblt f ld; t dp th t ntrt f brt [(O3] th plntr; plntr pth dl t dntrt Kplr brt hvn rtr ffnt fr lphr d thn th pth l; t f l pr n br tnd; vrt f v [(O3( + ICSO( SO4(+2KO(h ntt pp nftrd b Chvlr nldn n tht tnd rt fr th dptn 13 bn th nbr t ntrt f vr 5 tll nd 3 d tht rnll prhd b r 26 Bull. Hist. Chem. 8 (1990)

Fall for $1070; a horizontal pyrometer; a sextant and a quad- rant; a 5'4" aperture, achromatic refracting telescope; a ther- moscope of Rumford or differential ; a Wedg- wood's pyrometer; and an apparatus to show Newton's rings. Electrical apparatus includes an aurora tube; a of Aepinus; several electric batteries consisting of sets of Leyden jars; a cannon that could be fired with an electric spark; several electric machines for generating static ; including one in excellent condition that uses a 33" diameter glass plate; an electroscope; several glass piercers that could be used to pierce a card with the discharge from a Leyden jar; a Milner- sley thermometer to show the expansion of air when an electric spark is passed through it; induction cylinders for storing electric charge; a revolving armature engine; a revolving bar magnet; a sparking column and flyer for demonstrating the passage of an electric charge; several thunder houses to dem- onstrate the use of lightening rods to protect buildings; a series of electric discharge tubes with adjustable spark gaps that could be filled with different ; an electrophorus and a Zamboni's apparatus purchased by Dr. Peter from Deleuil in 1839. One item of physical apparatus of historical interest is a camera allegedly purchased by Dr. Peter during his visit to Paris in 1839, the year Daguerre introduced his photographic A ltn f bll jr nd rvr process. This camera has often been described as the source of botanical specimens. It should be noted that the original the first Daguerreotype taken in Kentucky (8) and what may medical school library has also been preserved intact, includ- have been the first medical photograph (4). Brown (6) rejects ing nearly 760 volumes on chemistry spanning the period the notion that this is one of Daguerre's cameras and identifies 1790-1850 (10). it as a Fox-Talbot camera - or an early copy of one - similar to In his catalog, Brown (6) comments on the problems he one on display in London dated 1835. The curator of the encountered in identifying apparatus in the collection. One photographic archives in the special collection at the Univer- item he could not identify was described as follows: sity of Kentucky has presented cogent arguments suggesting that the camera was not purchased in Paris in 1839, but r 7 rprnt ll (9 nd 5/ x 5 x nh ll-d bx constructed by or for Dr. Peter in Lexington (9). hh dvdd nt ht prtnt In h vlvt-lnd Wright has noted that the procurement of corpses for prtnt thr ll blljr rvr h rvr r nt dissection was a challenge for medical students, who often ll prl f th hp hr br tp ppr t b d t turned to midnight expeditions to graveyards or commercial ft nt rptl h hv n bv l tn hn resurrectionists (1). Thus, it is no surprise that a major fraction tr of the collection at Transylvania consists of models to teach anatomy, which includes a pair of artificial eyes to demonstrate Considering the reaction I receive whenever I mention that I near and far sightedness; life-sized wax models of an arm, the had the privilege of spending a month as a Distinguished human head, and the colon; plaster models of pathological Professor at Transylvania University, it is intriguing that one conditions; a set of fetal skeletons illustrating development of the few items that Brown could not identify was a set of month-by-month; numerous plaster models of various organs blood-letting cups. mounted in wooden frames; and papier-mâché models of pregnant uteri. The collection also contains a set of 40 frn nd t canvasses painted by A. Chazel in Paris of medicinal plants in the Jardin des Plantes in Paris, which were purchased by Dr. . . . Wrht, r., rnlvn: tr t th Wt rnl- Peter in 1839. Because Peter's visit to Europe coincided with vn Unvrt xntn KY 1975 the publication of Schwann's cell theory, he included among 2. . tr rnlvn Unvrt: It Orn ln his purchases a number of , including both aquatic nd ll Mrtn vll KY 19 (Raspail's) microscopes and cal-oxy hydrogen projection 3 ln Edtn n th rn f Arn St microscopes equipped with numerous slides of zoological and Unvrt f rth Crln r Chpl ll C 19 Bull. Hist. Chem. 8 (1990) 27

h Mdl M t rnlvn Unvrt" Sp The character of the company was established by its re- 4(0, Upjhn Cpn Klz MI 195 sponse to its initial disadvantages. Since the company had little 5 tr h tr f th Mdl prtnt f rnl- money available for research and development, in some cases vn Unvrt Mrtn vll KY 195 it would offer to provide a customer with new technology at a A rn Erl hlphl Apprt trnlvn low price, then use the job as an opportunity to develop the Cll (nd l f th Mdl prtnt rnlvn Cl- expertise that it needed to compete. Butrica comments that l r xntn KY 1959 Pool assumed that if he could sell a product, his engineers could 7 M rd Chl Mnpltn n Intrtn t build it. Fortunately Pool made sure that he hired engineers Stdnt n Chtr n th Mthd f rfrn Exprnt f who were good enough to make his promises stick. ntrtn r f rh th Ar nd S hlp The list of the challenges the company faced is a summary ndn 17 of the changing uses of industrial gases in the past 50 years. ft htrph nd th Arn Sn vr Providing for high altitude aviation in World War II, Yr 193 supplying oxygen for the steel industry, liquid oxygen and 9 G Mnff h Knt tr Sr 19 pp liquid hydrogen for NASA, and liquid nitrogen for a variety of -1 applications (including quick freezing of McDonald's ham- 1 Ctl f th rnlvn Unvrt Mdl brr burgers) are only some of the applications that contributed to rnlvn Unvrt r xntn KY 197 pp 31-37 the growth of Air Products. As it grew, the company diversified, sometimes into new areas that complemented the basic business, and sometimes Dr. George M. Bodner is Professor of Chemistry and Educa- into areas - like agricultural chemicals or welding gases - that tion at Purdue University, West Lafayette, IN 47907, and has were less successful. Two of these initiatives have become served as a Visiting Professor at Transylavania University, permanent divisions of the company (specialty chemicals and where he had the opportunity to study its museum collection environmental/energy services) but industrial gases are still first hand. the main business. Despite the growth in size, the company continues to show a willingness to take calculated risks, sometimes with poor results, such as synfuels development, BOOK NOTES but more often leading to profitable new directions. Writing an authorized company history can place a histo- Out of Thin Air: A History of Air Products and Chemicals. rian in the uncomfortable position of choosing either to de- Inc.. 1940-1990. Andrew J. Butrica with the assistance of scribe setbacks and adverse decisions frankly or else keep the Deborah G. Douglas, Praeger, New York, NY, 1990. 336 pp. sponsor happy. Butrica seems to have done a good job of Cloth (Typeset). $39.95. balancing these considerations. He presents the special diffi- culties of Air Products, such as labor disputes, research poli- Despite the significant role industrial gases have played in the cies, and unsuccessful expansion, in a concise and diplomatic development of the U.S. chemical industry, it's easy for way. It's perhaps inevitable that the company founder, Leonard historians to overlook them. Gases may be important, but they Pool, receives special and extensive consideration, but it just don't seem glamorous. In this history of the Air Products would have been equally interesting to know more about the and Chemicals Company, Andrew Butrica uses the company personalities and contributions of others who played key roles archives and interviews with many of the men involved to in the establishment of the company, such as George Pool, Ed prove that there's more excitement in this story than one might Donley, and Dexter Baker. suspect. In this book, Andrew Butrica not only restores industrial 50 years ago, even industrial users that required large gases to their rightful place in the story of the chemical industry amounts of oxygen depended upon gas delivery in cylinders. but also provides a fine 50th anniversary commemoration of a Leonard Pool, who founded Air Products, planned to fill a company that played a major role in that development. rr E market niche by building small, on-site oxygen generating nChtr prtnt S UY - 0 nnt Onnt Y 820 plants. This proved to be a good idea in the long run, but it was difficult to get started. During much of its history, AirProducts Physical Chemistry from Ostwald to Pauling: the Making of a was at a severe disadvantage because it was competing with Science in America. John W. Servos, Princeton University much larger, well-established companies, and it was perenni- Press, Princeton, NJ, 1990. xxii + 402 pp. Cloth (Typeset). ally short of capital. Air Products was successful because its $49.50. leadership combined a tenacious determination to make this idea work with the flexibility to take advantage of whatever This superb monograph by John Servos delivers both more and opportunities the market offered. less than its title might indicate. More in that it encompasses