View source for Archaeozoology

== Introduction ==
Archaeozoology, also known as zooarchaeology, is a sub-discipline of archaeology that involves the study of animal remains from archaeological sites. These remains, which include bones, shells, hair, scales, and other animal parts, provide valuable insights into the past human-animal interactions, subsistence strategies, and environmental conditions. By analyzing these remains, archaeozoologists can reconstruct past diets, trade networks, domestication processes, and ecological changes.

== History of Archaeozoology ==
The origins of archaeozoology can be traced back to the early 20th century when archaeologists began to systematically collect and analyze animal bones from excavation sites. The discipline gained prominence in the 1960s and 1970s with the advent of new analytical techniques and the increasing recognition of the importance of environmental archaeology. Key figures in the development of archaeozoology include Grahame Clark, who emphasized the ecological approach to archaeology, and Lewis Binford, who introduced the concept of "middle-range theory" to link archaeological data with human behavior.

== Methodology ==
Archaeozoological research involves several steps, including the recovery, identification, quantification, and interpretation of animal remains.

=== Recovery ===
The recovery of animal remains from archaeological sites typically involves careful excavation techniques to ensure that the remains are not damaged. Sieving and flotation methods are often used to recover small bones and other microfaunal remains.

=== Identification ===
Identification of animal remains is a crucial step in archaeozoology. This process involves comparing the archaeological specimens with modern reference collections to determine the species, age, sex, and other characteristics of the animals. Morphological features, such as bone shape and size, are used to identify the species, while wear patterns and growth rings can provide information on age and seasonality.

=== Quantification ===
Quantification involves counting and measuring the animal remains to assess their relative abundance and significance. Commonly used quantitative methods include the Number of Identified Specimens (NISP), Minimum Number of Individuals (MNI), and biomass estimates. These methods help archaeozoologists to understand the composition of animal assemblages and their contribution to past human diets.

=== Interpretation ===
The interpretation of archaeozoological data involves integrating the findings with other archaeological and environmental evidence. This can include studying butchery marks to understand meat processing techniques, analyzing isotopic signatures to reconstruct past diets, and examining the spatial distribution of remains to infer site organization and activity areas.

== Applications of Archaeozoology ==
Archaeozoology has a wide range of applications in understanding past human societies and their environments.

=== Subsistence Strategies ===
One of the primary applications of archaeozoology is the reconstruction of past subsistence strategies. By analyzing animal remains, archaeozoologists can determine the types of animals that were hunted, fished, or herded, as well as the seasonality and intensity of these activities. This information provides insights into the diet, economy, and mobility of past human populations.

=== Domestication ===
Archaeozoology plays a crucial role in studying the domestication of animals. By examining morphological changes, genetic evidence, and contextual information, archaeozoologists can trace the origins and spread of domesticated species such as dogs, cattle, sheep, and pigs. This research sheds light on the processes of animal domestication and the co-evolution of humans and animals.

=== Trade and Exchange ===
Animal remains can also provide evidence of trade and exchange networks in the past. Exotic species, non-local isotopic signatures, and specialized butchery practices can indicate the movement of animals and animal products over long distances. This information helps to reconstruct ancient trade routes, economic interactions, and cultural exchanges.

=== Environmental Reconstruction ===
Archaeozoological data can be used to reconstruct past environments and ecological changes. The presence or absence of certain species, changes in species composition, and isotopic analyses of animal remains can provide information on past climate, vegetation, and human impacts on the environment. This research contributes to our understanding of long-term environmental changes and human-environment interactions.

== Case Studies ==
=== The Neolithic Revolution ===
The Neolithic Revolution, which marked the transition from hunting and gathering to agriculture, is a key period in archaeozoological research. Studies of animal remains from Neolithic sites have provided evidence of early domestication, changes in subsistence strategies, and the development of pastoralism. For example, archaeozoological research at sites such as Çatalhöyük in Turkey has revealed the domestication of cattle and sheep and the intensification of animal husbandry practices.

=== The Roman Empire ===
The Roman Empire provides another rich context for archaeozoological research. Animal remains from Roman sites have been used to study diet, trade, and urbanization. For instance, the analysis of fish remains from Roman coastal sites has provided insights into the exploitation of marine resources and the trade of fish products across the empire. Similarly, the study of animal bones from urban centers such as Pompeii has revealed information on meat consumption, butchery practices, and the organization of food markets.

=== The Medieval Period ===
Archaeozoological research on the medieval period has focused on topics such as the development of agricultural economies, the impact of the Black Death, and changes in animal husbandry practices. For example, studies of animal remains from medieval monasteries have provided evidence of specialized farming practices, including the breeding of sheep for wool production. Additionally, the analysis of animal bones from urban sites has shed light on the dietary habits and social status of different population groups.

<div class='only_on_desktop image-preview'><div class='image-preview-loader'></div></div><div class='only_on_mobile image-preview'><div class='image-preview-loader'></div></div>

== Challenges and Future Directions ==
Archaeozoology faces several challenges, including issues of preservation, sampling bias, and the need for interdisciplinary approaches.

=== Preservation ===
The preservation of animal remains is influenced by various factors, including soil conditions, climate, and human activities. Poor preservation can result in the loss of valuable information and biases in the archaeological record. Advances in techniques such as ancient DNA analysis and stable isotope analysis are helping to overcome some of these challenges.

=== Sampling Bias ===
Sampling bias is another significant challenge in archaeozoology. The recovery and analysis of animal remains are often influenced by the excavation methods, research questions, and the expertise of the archaeozoologist. Ensuring representative sampling and developing standardized methodologies are essential for producing reliable and comparable data.

=== Interdisciplinary Approaches ===
Archaeozoology increasingly relies on interdisciplinary approaches, integrating data from archaeology, biology, chemistry, and other fields. Collaboration with specialists in ancient DNA, stable isotopes, and paleoenvironmental reconstruction is enhancing our understanding of past human-animal interactions and environmental changes. Future research in archaeozoology will likely continue to emphasize these interdisciplinary approaches and the development of new analytical techniques.

== See Also ==
* [[Archaeology]]
* [[Paleoethnobotany]]
* [[Stable Isotope Analysis]]

[[Category:Archaeology]]
[[Category:Zoology]]
[[Category:Environmental Science]]