AMERICAN JOURNAL OF PHYSICAL ANTHROPOLOGY 118:298 –300 (2002) Book Reviews BIOGEOCHEMICAL APPROACHES TO PALEODIETARY ANALYSIS. Edited by Stanley H. Ambrose and M. Anne Katzenberg. New York: Kluwer Academic/Plenum Publishers. 2000. 269 pp. ISBN 0-306-46457-8. $75.00 (cloth). This book is the long awaited product of the Fourth Advanced Seminar on Paleodiet, which was held at Banff, Alberta, in September 1994. Along the way, some 40% of the participants withdrew from the publication, so that the book contains only 10 chapters based on the 17 papers that were originally presented at the conference. Two additional chapters have been added. Rather than the cutting edge volume this might have been, it now seems somewhat dated (as is this review). The research discussed in several chapters has been substantially published elsewhere, and few cite research more recent than 1997. The chapters cover a broad range of topics, including case studies (Chapters 1 and 2), preservation and diagenesis (Chapters 4, 5, 7, and 9), environmental correlates (Chapters 3, 6, and 12), and theoretical considerations (Chapters 8, 10, 11, and 12). A short preface discusses the context of the original conference. The volume might have benefited from a summary discussion highlighting future directions for paleodietary research, although admittedly, the broad variety of themes covered in the volume does not easily make for a forward-looking statement. Indeed, the strength of this volume lies in the diversity of research questions that are represented in its chapters. Thus, it will serve as a useful survey of the broad range of issues that may be addressed using bone chemical data. Several chapters provide important, concise reviews of key issues in paleodietary analysis. These include the chapter by J.H. Burton and T.D. Price on strontium, which provides a clear and coherent review of the manner in which bone strontium: calcium ratios reflect dietary proportions, and highlights the erroneous inferences that misinformed early applications of bone strontium as an indicator of trophic level. Similarly, G.J. Van Klinken et al. provide a thorough review of factors that affect ␦13C values independent of the major differences in delta values of different food sources. They also review ␦13C variations in Europe, where no C4 foods were consumed; these issues are clearly pertinent for researchers working in the Americas and other world areas. Likewise, S.H. Ambrose reviews factors that affect ␦15N values in different ecosystems. Chapters that discuss specific case studies include that by M.A. Katzenberg et al., which considers the effects of cooking practices on food isotope signatures in Upper Canada. N.J. van der Merwe et al. © 2002 WILEY-LISS, INC. reconstruct Preclassic Maya diet at Cuello, Belize. This is the only large study of Maya diet from this period. Their results underscore the discrepancy between the typical archaeological reconstructions of Maya diet and the emerging picture of environmental variability in this region. H. Bocherens attempts to identify poorly preserved Pleistocene faunal collagen by comparison with collagen-apatite spacing and from ␦15N ratios of modern fauna. While this is a useful approach, the study suffers from the small size of the modern comparative sample. Curiously, he makes no mention of more traditional measures of collagen and apatite integrity, such as C/N ratios or infrared spectra of apatite. J.A. Lee-Thorpe provides a thorough review of bone mineral diagenesis. She considers the effect of burial matrix ␦13C values on the shifting isotope signals of browser and grazer remains in South African cave sites, concluding that bone apatite has been significantly altered, but that enamel apatite retains its biogenic signal for perhaps millions of years. M.J. Schoeninger et al., discuss the relationship of ␦18O values in faunal bone mineral to ancient temperatures and humidity levels. Their data support a model that scales body water parameters to body mass, but they find a larger range of isotope values than predicted by this model. The ␦18O of some species that do not fit the model may be explained by water conservation behavior (diurnal resting) peculiar to these species. Intratooth seasonal variation and pre-post weaning differences among teeth sampled may also contribute to the variation in these data. The results of this study highlight specific considerations in the use of faunal ␦18O for paleoclimatic reconstruction. S. Pfeiffer and T.L. Varney consider the predictive value of bone histology as a tool to evaluate collagen preservation in archaeological remains, finding that collagen can show acceptable amino-acid profiles in bone that is clearly histologically damaged. This conclusion seems at odds with the results presented in their Table 7.3, clearly showing better collagen integrity in the middle cortical layer for most samples. G. Grupe et al. examine the implications of microbial degradation on bone collagen isotope ratios. By growing soil bacteria on marten bones, they observe a shift to lighter collagen ␦13C due to selective use of certain amino acids by the microbes, and document similar amino-acid profiles in archaeological bones that show histological evidence of microbial damage. They suggest that ␦13C might be corrected for a known depletion of specific amino acids. Unfortunately, the reference for a follow-up study to this important work, which is cited in a note added in proof, is not provided in the chapter bibliography. BOOK REVIEWS 299 In a theoretical chapter, H.P. Schwarcz examines the biochemical pathways of carbon metabolism in the body, and their implications for isotope fractionation among body tissues. He concludes that, together, routing of essential amino acids from dietary protein, and the partial blocking of carbon from lipids that would be used in the synthesis of nonessential amino acids, may account for the apparent routing of proteins toward collagen. R.E.M. Hedges and G.J. van Klinken elaborate a “Dietary Isotopic Fractionation Function” to model the relationship between the isotopic composition of dietary components and resultant body tissues, and apply their approach to experimental data on rats obtained from earlier experiments. This is a useful conceptual approach to understanding the partitioning of dietary influxes and tissue fractionation. Unfortunately, its readability is hindered by the frequent reference to “section” numbers that are not included in the subtitles of the chapter (e.g., on page 218; “in Section 5.2 we outline . . .”). Presumably the subtitles were changed at some point in the editorial process, but the text was not modified to match. In the final chapter, S.H. Ambrose provides interesting experimental data on the influence of different levels of dietary protein and of heat stress on nitrogen isotope ratios in rats. Although diets with different levels of protein showed visible effects on growth, nitrogen isotope ratios did not show the increase predicted by the protein deprivation hypothesis, which predicts elevation of ␦15N due to metabolism of body tissues. Similarly, he observes no systematic ␦15N difference in rats raised at different ambient temperatures. Both results raise the possibility that rat physiology is not an appropriate model for testing patterns of ␦15N variation in nature; however, additional research along these lines is clearly warranted. I did find a number of printing errors, mostly in figure and table legends (p. 119, Fig. 6.6), and Figure 7.2 was simply omitted from my copy, although the legend was printed. Otherwise, the quality of the volume is high in all regards. This volume is an important contribution to the growing body of paleodiet literature. It will be a handy addition to the library of those interested in paleodietary reconstruction. LORI E. WRIGHT Department of Anthropology Texas A & M University College Station, Texas DIFFERENT SEASONS: BIOLOGICAL AGING AMONG MENNONITES OF THE MIDWESTERN UNITED STATES. Edited by Michael H. Crawford. Lawrence, KS: University of Kansas Press. 2000. 178 pp. ISBN 0-938332-21-X. $25.00 (paper). tive dimension to a study of longevity in the Caucasus populations reputedly containing unusually large numbers of centenarians. Scrutiny of the remarkable longevity of these populations reveals that it is based on exaggerated claims, leaving the Mennonite research as the principal product of the project. The first chapter by M.H. Crawford reviews the current status of aging research. The following three chapters on “Mennonite History” (L. Rogers and R. Rogers), “Historical Demography” (J.C. Stevenson and P.M. Everson), and “Genetic Structure” (M.H. Crawford) provide the historical, demographic, and genetic context for the remaining chapters. The historical research dispels the commonly held stereotype that Mennonite populations have homogeneous origins. Usually considered to be of Dutch origin, the Prussian Mennonites came into being after 1539 as an amalgam of various Germanspeaking and Moravian populations. Many papers dealing with the topics covered in this volume were published in the 1980s. Some updating has taken place, but on the whole references predate 1990. A sampling of chapters yielded about 14% of the references dating to 1990 or later. The chapters cover a broad range of topics, including phenylthiocarbamide (PTC) tasting (T. Koertvelyessy), anthropometry (M.H. Crawford, D. Demarchi, M. Ellard, and S. Pupala), quantitative genetics of neuromotor performance (E.J. Devor), levels of serum bio- Religious isolates, particularly Anabaptist sects such as the Amish, Hutterites, and Mennonites, have long been considered ideally suited for genetic research. Their genetic isolation and documented history and genealogy are important components of their research value. For aging research, their austere life style adds another advantage. Eschewing tobacco and alcohol use and practicing a traditionally active life style borne of agricultural pursuits and a strong work ethic isolate them from agents that accelerate the aging process in the general population. These were some of the considerations that led to the selection of Mennonite communities in Kansas and Nebraska. This monograph presents results from a long-term project, begun in 1979, designed to assess aging and disentangle the genetic and environmental components that contribute to it. The volume contains a preface and 13 chapters. Nearly all the results reported here were previously published in journals, so this volume is more in the spirit of collecting it all in one place. In the preface, M.H. Crawford explains that the project’s origin was to provide a compara- DOI 10.1002/ajpa.10107 Published online in Wiley InterScience (www.interscience.wiley. com). 300 BOOK REVIEWS chemical markers (L. Martin and M.H. Crawford), coronary heart disease and renal function (R. Duggirala, R. Arya, J. Blangero, and M.H. Crawford), biological age (M. Utley and M.H. Crawford), nutrition, obesity, and mortality (R. Arya, G. Singh, M.J. Mosher, J.D. Haas, and M.H. Crawford), and type A/B behavior and lipid profiles (R. Duggirala, W. Bowerman, and M.H. Crawford). To me, the heart of the matter addressed in this volume is the attempt to develop criteria for biological age, something to serve the purpose that skeletal age serves during the preadult years. Since death is the inevitable outcome of aging, people who age faster biologically should die earlier than those who age more slowly. Chronological age is the best predictor of death, but several physiological variables improve the model; most importantly, high blood urea nitrogen levels significantly increase the probability of death. I undertook this review partly out of curiosity. Having grown up in a related community, I thought I might gain some insight into my own prospects for a long and presumably useful life. I was disappointed in this personal quest for my longevity prospects; Mennonite mortality is not noticeably different from that of Americans in general. This is in part because, like Americans generally, Mennonites have BOOK RECEIVED Condemi S (2001) Les Néandertaliens de La Chaise. Paris: Comité des Travaux Historiques et Scientifiques. 178 pp. €38.00 (paper). Delson E, Terranova CJ, Jungers W, Sargis EJ, Jablonski NG, and Dechow PC (2000) Body Mass in Cercopithecidae (Primates, Mammalia): Estimation and Scaling in Extinct and Extant Taxa. Anthropological Papers, Number 83. New York: American Museum of Natural History. 159 pp. $16.50 (paper). become more sedentary as mechanization takes over tasks formerly done by hand, but their caloric intake remains high, and in fact, higher than the American average. Mennonites have proven themselves no wiser than Americans generally in making life style choices that promote health and longevity. As mentioned, most of what is in this volume can be found in the journal literature. What you get for your modest investment is all of it in one place. Having it all together emphasizes the multidisciplinary and collaborative nature of this research. The project itself, now moving into its third decade, has experienced some aging. But it has kept pace with genetic and methodological advances that have emerged over its lifetime. The work shows what can be accomplished with proper research design and organization. The project is a model of aging research (no double entendre intended). RICHARD L. JANTZ Department of Anthropology University of Tennessee Knoxville, Tennessee DOI 10.1002/ajpa.20018 Published online in Wiley InterScience (www.interscience.wiley. com). Domett KM (2001) Health in Late Prehistoric Thailand. Oxford, UK: Archaeopress. 180 pp. £30.00 (paper). Konner M (2002) The Tangled Wing: Biological Constraints on the Human Spirit. New York: Times Books/Henry Holt and Co. 540 pp. $35.00 (cloth). Plavcan JM, Kay RF, Jungers WL, and van Schaik CP (eds.) (2002) Reconstructing Behavior in the Primate Fossil Record. New York: Kluwer Academic/Plenum Publishers. 437 pp. $125.00 (cloth). Stanford CB (1998) Chimpanzee and Red Colobus: The Ecology of Predator and Prey. Cambridge, MA: Harvard University Press. 296 pp. $20.00 (paper).