Here is the requested information for each article.
Acuto Inka Landscapes Archaeology.pdf
Author: Félix A. Acuto
Findings:
The Inkas used spatial forms tactically to regulate interactions, create representations, and shape experiences within their empire.
Three main principles organized Inka spatial design:
Stratification - creating landscapes of inequality
Rituality - creating landscapes of commemoration and spectacle
Control - creating landscapes of control
Inca provincial centers were loci of diplomacy, hospitality celebrations, and ritualized exchange.
These centers were microcosms of Cuzco, legitimizing Inca rule.
Historical Dates: Inka Empire, specifically the period of Inka colonialism. This period is generally considered to be from the mid-15th century to the Spanish conquest in the 16th century.
Methods: Analysis of spatial layouts of Inka provincial centers, drawing on archaeological data and existing literature.
Obstacles:
The Inka state was not completely unified and local administrative principles varied.
There was significant variability in Inka strategies of domination and local societies played an active role in shaping colonial relationships.
Acuto's article primarily takes a synchronic view of settlements, neglecting the historical processes of Inka domination.
The occupational history of settlements is overlooked, as the analysis focuses on the final architectural plan.
Archaeology Introduction Chapter 10.pdf
Author: Michael MacKinnon
Findings:
Urban environments in Roman antiquity hosted a variety of organisms that interacted in complex ways.
This period witnessed diverse urbanized spaces, including cities, towns, and military settlements.
Understanding the interactions between humans and non-humans in these settings can provide insights into ecological and cultural operations, attitudes, and behaviors.
Zooarchaeological evidence from sites like Pompeii, Ostia, Athens, and Carthage can help explore these interactions.
Paleopathological studies can reveal insights into disease incidence and prevalence within urban settings.
Further research is needed to move beyond case studies and develop broader syntheses of pathological conditions to understand the complex relationships between humans and animals in the past.
Historical Dates: Roman antiquity, broadly between c. 500 BC to c. 500 AD
Methods:
Zooarchaeological analysis
Paleopathological studies
Obstacles:
Challenges in tracking disease through zooarchaeology, including:
Osteological representation of ailments
Identification and diagnosis of conditions and etiologies
Lack of modern comparative material for assessment
Complications associated with taphonomy, preservation, and reporting of affected faunal remains
Carballo Robb Teotihuacan.pdf
Author: David M. Carballo and Mathew H. Robb
Findings:
Teotihuacan, a major city in Central Mexico, was a planned city with a unique grid layout and apartment compounds.
It was not a fortress city like many other Mesoamerican urban centers, and lacked prominent defensive walls.
Teotihuacan was an economic powerhouse and a hub for interregional commerce throughout Mesoamerica.
Teotihuacan's decline is still debated, with possible causes including ecological decline, internal social tensions, and conflict with other polities.
Historical Dates: Teotihuacan flourished from around the first century AD to the mid-sixth century AD.
Methods: Archaeological excavations and analysis of material culture.
Obstacles:
Understanding the specific social roles and hierarchies within Teotihuacan society.
Determining the exact causes and processes leading to the city's decline.
Chinese Agriculture Persistence Antiquity 2020.pdf
Author: Yuan Jing, Li Min, and Rowan Flad
Findings:
Five large Neolithic and Bronze Age sites in the Yellow River region (Xipo, Bancun, Zhouli, Wadian, and Xinzhai) show a persistence of subsistence strategies despite climate change around 4000 cal BP.
Millet agriculture remained a dietary staple during this period.
Pigs and dogs were important domesticates and likely consumed millet byproducts.
This resilience suggests the adoption of flexible and adaptable agricultural practices by these early farming communities.
Historical Dates: Neolithic and Bronze Age periods in China, specifically focusing on a period of climate change around 4000 cal BP.
Methods:
Zooarchaeological analysis - identifying and quantifying animal remains
Archaeobotanical analysis - identifying and quantifying plant remains
Isotopic analysis of human, pig, and dog remains - analyzing carbon and nitrogen stable isotopes to understand diet
Obstacles:
The sites were excavated by different teams with varying sampling strategies, making direct comparisons challenging.
The small-scale and preliminary nature of analyses at each site limits the scope of interpretations.
Hand-recovery of zooarchaeological assemblages likely under-represents remains of fish, birds, and small mammals.
Dobson Beringia Archaeology.pdf
Author: Jerome E. Dobson, Giorgio Spada, and Gaia Galassi
Findings:
Retrospective sea-level mapping reveals an archipelago (Bering Transitory Archipelago) that likely existed from >30,000 BP to 8000 BP in the Bering Sea.
This archipelago offers a new explanation (Stepping-Stones Hypothesis) for the first human migration to the Americas.
The Bering Transitory Archipelago would have provided a viable pathway with abundant resources, freshwater, and protected waters for maritime people.
The hypothesis meets the four criteria for a viable explanation: a source population in Asia, a pathway with sufficient sustenance, settlement sites in North America soon after but not before the proposed date, and a sanctuary for the development of a distinct genetic profile.
Historical Dates: >30,000 BP to 8000 BP
Methods:
Retrospective sea-level mapping using a Glacial Isostatic Adjustment (GIA) model.
Hypsometric analysis of the Bering Sea region.
Obstacles:
Verifying individual island matches between their reconstruction and previous research due to differences in resolution and documentation.
Fisher 2023 Maya Monumentality.pdf
Author: Chelsea Fisher
Findings:
Monumentality in the Maya lowlands is traditionally linked to political complexity, but it can also be understood as embodying traditional ecological knowledge (TEK).
Fieldstone gathering, a TEK practice for clearing land for cultivation, is linked to agricultural intensification and the emergence of monumentality during the Late and Terminal Formative periods (300 BC - AD 250).
This is evident at the Tzacauil site in Yucatán, Mexico, where monumental architecture incorporates significant amounts of fieldstone.
Exploring the connections between monumental traditions and localized TEK practices can provide a deeper understanding of complexity, subsistence, and human-environment interactions.
Historical Dates: Late and Terminal Formative periods (300 BC - AD 250)
Methods:
Archaeological excavations at the Tzacauil site.
Integration of LiDAR data with traditional ecological knowledge survey.
Obstacles:
Twentieth-century ethnographic and ethnoarchaeological accounts of stone gathering might not fully represent the scale and scope of early agricultural intensification and fieldstone clearance practices in the Maya lowlands.
The inherently localized nature of TEK means there will be variations in how it is manifested in monumentality across the Maya region.
Fremont Maize Vernon.pdf
Author: Kenneth B. Vernon, Peter M. Yaworsky, Weston McCool, Jerry D. Spangler, Simon Brewer, and Brian F. Codding
Findings:
The Fremont, an archaeological culture in the North American Southwest, practiced a mixed economy of maize agriculture and foraging, with maize playing a significant but not dominant role.
The adoption and intensity of maize agriculture among the Fremont varied spatially and temporally.
Environmental factors, particularly precipitation, significantly influenced the success and viability of maize agriculture in different areas.
Historical Dates: The Fremont archaeological culture existed from approximately AD 400 to 1350.
Methods:
Archaeological data from Fremont sites.
Environmental data, including precipitation records and paleoclimatic reconstructions.
Predictive modeling using machine learning algorithms to assess the relationship between environmental variables and maize agriculture.
Obstacles:
Ambiguities in archaeological data and interpretations regarding the extent and intensity of Fremont maize agriculture.
Limitations in accurately reconstructing past environmental conditions and their influence on maize farming.
Hard et al. Maize NW Mexico (1).pdf
Author: Robert J. Hard, Karen R. Adams, John R. Roney, Kari M. Schmidt, and Gayle J. Fritz
Findings:
Maize farming emerged in northwest Mexico around 3200 years ago, potentially as a response to population pressure and environmental changes.
The adoption of maize agriculture led to significant shifts in settlement patterns, social organization, and subsistence strategies.
Early maize farmers in this region employed innovative techniques, such as terracing and water control, to adapt to challenging environmental conditions.
Historical Dates: The study focuses on the emergence of maize farming in northwest Mexico, approximately 3200 years ago (around 1200 BC).
Methods:
Archaeological excavations at sites like Cerro Juanaqueña.
Analysis of architectural features, such as terraces and water control structures.
Zooarchaeological analysis of faunal remains to reconstruct dietary practices.
Archaeobotanical analysis of plant remains, including maize, to understand subsistence strategies.
Obstacles:
Limited availability of early maize remains due to preservation issues.
Reconstructing the precise environmental conditions and their influence on early maize adoption.
Understanding the specific social and cultural factors that facilitated the adoption of maize agriculture.
Roman Water by Dermody et al.pdf
Author: B.J. Dermody, R.P.H. van Beek, E. Meeks, K.K. Goldewijk, W. Scheidel, Y. van der Velde, M.F.P. Bierkens, M.J. Wassen, and S.C. Dekker
Findings:
The Roman Empire's reliance on the virtual water trade (importing water-intensive crops) made it vulnerable to both crop failures and disruptions in trade networks.
Historical Dates: Roman Empire. While the article doesn't specify a precise time range, it focuses on the Roman Empire's reliance on the virtual water trade, a practice that was particularly significant during the period of its greatest territorial expansion and population growth (roughly the first two centuries AD).
Methods:
Examination of historical data related to Roman agricultural practices and trade networks.
Likely employed modeling techniques to assess the Roman Empire's virtual water footprint and trade flows, but specific models are not mentioned in the excerpt provided.
Obstacles:
Reconstructing the precise quantities and flows of virtual water trade in the Roman Empire due to limitations in historical data.
Tikal Sustainability Lentz et al.pdf
Author: David L. Lentz, Nicholas P. Dunning, Vernon L. Scarborough, and Liwy Grazioso
Findings:
The ancient Maya city of Tikal exhibited a complex and resilient system of resource management that allowed it to sustain a large population for over 1500 years.
This system involved a deep understanding of the local environment, innovative agricultural techniques, and careful management of water resources.
Tikal's eventual collapse was likely due to a combination of factors, including environmental stress, population pressure, and political instability.
Historical Dates: The study examines Tikal's long occupation, spanning over 1500 years, and its eventual collapse in the mid-9th century CE.
Methods:
Multi-disciplinary research approach integrating archaeological, paleoecological, and environmental data.
Settlement pattern research, examining the distribution of ancient Maya settlements and their relationship to the environment.
Likely incorporated remote sensing and GIS techniques to analyze landscape features and land use.
Obstacles:
Reconstructing the precise details of Tikal's resource management system due to data limitations and the complexity of the ancient Maya socio-political system.
Determining the relative importance of various factors contributing to Tikal's collapse.