Marcus Sterling
Marcus oversees editorial strategy for articles on ancient dietary habits and agricultural evolution. He ensures that complex microscopic imagery is interpreted accurately for a broad academic audience.
Latest from Marcus Sterling
Nature’s Tiny Weather Stations: How Ancient Dust Predicts Our Future
Tiny glass structures found in soil are acting as ancient weather stations, helping scientists understand past climate shifts and predict future environmental changes.
How Microscopic Plant Stones Solve Ancient Climate Mysteries
Scientists are using microscopic silica fossils to reconstruct ancient environments, helping us understand how landscapes shifted from forests to grasslands over thousands of years.
The Invisible Glass Shards That Map Ancient Farms
Discover how microscopic 'plant stones' called phytoliths are helping archeologists reveal ancient diets and the birth of farming through the magic of silica and specialized microscopy.
The Glass Library in the Soil
Ancient plants leave behind tiny glass structures called phytoliths that survive for thousands of years. Learn how these microscopic clues are helping us rewrite the history of farming and climate change.
Tracking the First Farmers Through Microscopic Clues
Archaeologists are using microscopic glass structures in soil to trace the history of farming. These tiny shapes show exactly when wild grasses were turned into crops by ancient humans.
Ancient Dinner Plates: Using Micro-Glass to Find Out What Ancestors Ate
Archaeologists are using microscopic silica 'fingerprints' to uncover the diet and farming habits of ancient civilizations.
Reading the Earth: How Tiny Silica Fossils Track Ancient Climate Change
Microscopic 'plant stones' are helping scientists map how the Earth's climate has shifted over millennia. These durable silica structures provide a detailed record of ancient forests and grasslands.
Reading the Earth’s Dusty Diary
Hidden in the soil are microscopic glass fossils that act as a climate record. See how scientists are using these 'dust diaries' to understand the planet's history and our future.
The Glass Ghosts of Ancient Gardens
Plants might rot, but they leave behind tiny glass skeletons called phytoliths. Discover how these microscopic shapes are rewriting the history of ancient farming and climate change.
Tiny Glass Shards That Map Ancient Farms
Ancient glass 'fingerprints' hidden in the dirt are revealing the secret history of the world's first farmers.
Seeing the Invisible: How Tiny Stones Reveal Ancient Gardens
Learn how microscopic glass structures inside plants help scientists rebuild lost worlds and ancient diets through the science of phytolith analysis.
Fossils of Glass: How We Rebuild Ancient Forests
Explore how microscopic glass fossils called phytoliths allow scientists to reconstruct ancient climates and track how humans changed the environment over thousands of years.
Reading the Earth Through Microscopic Jigsaw Puzzles
Ancient landscapes are hidden in the dirt. By studying the microscopic silica structures plants leave behind, scientists are mapping how forests turned to farms and how humans survived through shifting climates.
Tiny Glass Ghosts: How Microscopic Plant Bits Reveal Ancient Meals
Archaeologists are using microscopic glass structures called phytoliths to solve ancient mysteries about what people ate and how they farmed thousands of years ago.
Microscopic Silica Analysis Refines Timelines for Ancient Rice Domestication
New research in the Yangtze River basin uses microscopic silica structures to trace the millennia-long evolution of rice domestication, revealing a slower transition than previously estimated.
Phytolith Records as Proxies for Biodiversity Trends in Tropical Forest Environments
Archaeobotanists are using silica phytoliths to reconstruct the history of tropical forests, revealing that many 'pristine' areas were actually managed by ancient human populations.
Technical Advancements in Microscopic Silica Analysis for Paleoecological Reconstruction
Advances in phytolith analysis are allowing researchers to reconstruct ancient environments and human agricultural practices with unprecedented precision. By studying microscopic silica structures preserved in soil, scientists can track thousands of years of ecological shifts.
Advancements in Phytolith Analysis Reveal New Timeline for Neolithic Rice Cultivation
Recent breakthroughs in phytolith analysis, the study of microscopic silica bodies in plants, have provided a more detailed timeline for rice domestication in the Yangtze River Basin, revealing a long and complex transition from wild harvesting to systematic agriculture.
Phytolith Analysis Reshapes Timelines for Early Cereal Domestication in East Asia
New research utilizing advanced phytolith analysis in the Yangtze River basin is rewriting the history of rice domestication. By examining microscopic silica structures preserved for millennia, scientists have identified a 3,000-year transition from wild foraging to systematic farming.
The Digital Frontier in Archaeobotany: Harnessing AI for Automated Phytolith Identification
Artificial intelligence and deep learning are transforming archaeobotany by automating the identification of phytoliths, allowing for faster and more objective analysis of ancient plant remains.