The 2018 American Society of Naturalists Awards
Published: October 15, 2018
The American Society of Naturalists (ASN) stands as a venerable institution dedicated to advancing our understanding of organic evolution and broad biological principles. Since its establishment, the society has been instrumental in promoting the conceptual unification of biological sciences, bringing together researchers from diverse fields to explore the interconnectedness of life on Earth. Each year, the ASN recognizes exceptional contributions to this field through a series of prestigious awards that honor scientists whose work exemplifies the society's mission 1 .
The 2018 awards celebrated groundbreaking research that spanned from intricate evolutionary patterns in butterfly communities to sophisticated mathematical models of population dynamics, demonstrating the remarkable diversity of approaches within modern natural history research.
These awards are not merely ceremonial; they represent the cutting edge of biological inquiry, highlighting studies that transform how we perceive the natural world. The 2018 recipients particularly embodied the ASN's commitment to research that bridges disciplines, connecting evolutionary theory with ecological observation, mathematical modeling with field experimentation, and genetic analysis with behavioral studies. Their work continues to influence how scientists approach some of the most complex questions in biology today 1 .
Honors the best paper published in The American Naturalist during the previous calendar year.
Jahnavi Joshi, Anupama Prakash, and Krushnamegh Kunte for their study on "Evolutionary Assembly of Communities in Butterfly Mimicry Rings" 1 .
Recognizes mid-career investigators for significant contributions to understanding particular ecosystems or organism groups.
Embodies ASN's commitment to bridging empirical observation with theoretical advancement 1 .
Butterfly mimicry represents one of evolution's most fascinating phenomena, where multiple species evolve similar wing patterns.
Butterfly mimicry represents one of evolution's most fascinating phenomena, where multiple species evolve similar wing patterns to signal toxicity or unpalatability to predators. These complex associations, known as mimicry rings, involve numerous species that may not be closely related but share protective coloration. Joshi, Prakash, and Kunte tackled fundamental questions about how these rings form and persist 1 .
How do multiple species evolve similar patterns?
What prevents these systems from collapsing when less-protected mimics benefit?
How do evolutionary processes shape these communities over time?
Do rings develop through convergent evolution or sequential colonization?
Collected photographic evidence and field observations across India, documenting species participation in mimicry rings.
Sequenced genetic markers to reconstruct evolutionary relationships between species.
Used statistical models to analyze pattern similarity, phylogenetic distance, and ecological factors.
Incorporated geological and climatic data to understand historical influences on mimicry ring assembly 1 .
| Research Component | Methodology Applied | Specific Question Addressed |
|---|---|---|
| Pattern Similarity Analysis | Digital image analysis of wing patterns | How do we objectively quantify mimicry accuracy? |
| Phylogenetic Reconstruction | DNA sequencing and evolutionary tree building | Are species in mimicry rings closely related? |
| Ecological Correlation | Statistical modeling of pattern distribution | How do habitat types influence mimicry ring composition? |
| Historical Assembly | Biogeographic reconstruction | How have mimicry rings changed over evolutionary time? 1 |
Multiple Evolutionary Origins: Similar patterns evolved independently
Gradual Assembly: Rings form slowly over evolutionary timescales
Ecological Constraints: Habitat influences ring composition
Predator-Mediated Selection: Accurate mimics show higher survival 1
Demonstrates power of natural selection
Challenges rapid coevolution models
Shows ecological context shapes evolution
Confirms selective mechanism maintaining mimicry 1
Cutting-edge research in evolutionary biology and natural history relies on a sophisticated array of methodological approaches and technologies. The 2018 award-winning studies exemplified how modern biologists combine traditional natural history observation with advanced analytical techniques to unravel nature's complexities 1 .
| Research Tool | Function | Application in Evolutionary Biology |
|---|---|---|
| DNA Sequencers | Genetic material analysis | Phylogenetic reconstruction, population genetics |
| Spectrophotometers | Color measurement | Quantifying wing patterns and camouflage |
| Geographic Information Systems (GIS) | Spatial data analysis | Mapping species distributions and habitat types |
| Phylogenetic Software | Evolutionary tree building | Reconstructing evolutionary relationships |
| Digital Image Analysis | Pattern quantification | Objectively measuring morphological similarity |
| Field Observation Equipment | Data collection in natural settings | Documenting species interactions and behavior 1 |
The research recognized by the 2018 ASN awards has continued to influence evolutionary biology and ecology in the years since its recognition. Joshi, Prakash, and Kunte's work on butterfly mimicry rings has provided a framework for understanding how complex ecological communities assemble through evolutionary time 1 .
Their integrative approach has been adopted by researchers studying diverse ecosystems 1 .
Understanding mimicry rings helps predict how communities respond to environmental change 1 .
The research serves as an exemplary model of interdisciplinary biological inquiry 1 .
The 2018 American Society of Naturalists awards celebrated research that exemplifies the society's mission to promote conceptual unification across biological disciplines. The honored work demonstrated how diverse approaches—from detailed field observation to sophisticated genetic analysis—can be integrated to reveal fundamental truths about how nature operates 1 4 5 .
As we face growing environmental challenges, from climate change to biodiversity loss, the kind of integrative biological research that the ASN promotes becomes increasingly valuable. Understanding how natural systems are organized, how they evolved, and how they function provides essential insights for conserving those systems in a rapidly changing world 1 .