Article archive
Published news and blog articles, organized by category. Browse older coverage by month or search for a topic. Undated blog guides appear after dated news.
9,685 articles · Newest first
The hidden history of mangrove forests
Mangrove forests have long been working landscapes and cultural places, but maps, markets, scientific categories, and conservation priorities have repeatedly changed what people notice and value.
The hidden history of the water cycle
The water cycle is a modern synthesis of older observations, instruments, theories, and global measurements—and its neat diagram hides many histories at once.
The water cycle explained: the ideas that matter
The clearest water-cycle explanation separates reservoirs, transfers, phase changes, residence times, and human pathways instead of treating every arrow as the same kind of movement.
What atmospheric rivers teach us about the world
Atmospheric rivers show that weather, water, infrastructure, and society are one connected system: a distant ocean surface can shape a local decision days later, but the outcome depends on the landscape that receives the flow.
What mangrove forests teach us about the world
Mangrove forests show how protection, abundance, and resilience emerge from relationships among living structure, moving material, delayed feedback, and the people who share a boundary.
What the water cycle teaches us about the world
The water cycle teaches a general systems lesson: what looks local is connected, what looks abundant may be slow to replace, and every shortcut changes a network of feedbacks.
Antibiotic discovery explained: the ideas that matter
The essential ideas behind antibiotic discovery are simple to state but demanding to apply: selective toxicity, ecological diversity, evidence across scales, exposure and evolutionary feedback.
Coral reef ecosystems explained: the ideas that matter
To understand coral reef ecosystems, keep four ideas separate but connected: the coral animal, its symbiotic partners, the carbonate framework, and the wider community living in the habitat.
How antibiotic discovery works
Antibiotic discovery is a funnel from ecological clue to clinical evidence: find a useful chemical, prove what it does, make it safe and show that it helps patients.
How coral reef ecosystems work
Coral reef ecosystems are built from a partnership between tiny animals, photosynthetic microbes, chemistry, and a crowd of consumers that turn rock-like structure into living habitat.
How the science of blood types works
Blood types are a compact immune-recognition system: inherited red-cell markers meet antibodies in plasma, and careful matching prevents those two sides from attacking each other during transfusion.
The engineering challenge behind antibiotic discovery
Finding antibacterial activity is only the first engineering milestone. A successful antibiotic must satisfy molecular, biological, manufacturing, clinical and evolutionary constraints at the same time.
The engineering challenge behind coral reef ecosystems
A coral reef must build a durable structure with living tissue while managing heat, light, nutrients, waves, predators, disease, and uncertainty—a distributed engineering problem with no single control knob.
The engineering challenge behind the science of blood types
Blood typing is an engineering problem as well as a biological one: laboratories must turn fragile samples and probabilistic signals into a fast, traceable compatibility decision under pressure.
The hidden history of antibiotic discovery
The history of antibiotic discovery is a story of old remedies, new instruments, accidental observations and industrial systems that turned fragile clues into dependable treatment.
The hidden history of coral reef ecosystems
Coral reefs are not a timeless backdrop: they are the latest layer in a long history of changing builders, interrupted growth, scientific categories, and human relationships with the sea.
The hidden history of the science of blood types
The history of blood types is a story of failed transfusions, careful observation, immune chemistry and laboratory standardization—an example of how a hidden biological difference became a public safety protocol.
The science of blood types explained: the ideas that matter
The essential ideas behind blood types fit together as a simple model: inherited antigens mark red cells, antibodies recognize unfamiliar markers, and component-specific matching prevents immune reactions.
What antibiotic discovery teaches us about the world
Antibiotic discovery teaches that progress is ecological, institutional and temporary: invisible life supplies the clues, shared systems turn them into care, and evolution keeps changing the terms.
What coral reef ecosystems teach us about the world
Coral reef ecosystems reveal a general systems lesson: abundance can emerge in nutrient-poor settings when relationships, feedback, and physical structure keep a fragile network working.
What the science of blood types teaches us about the world
Blood-group science shows how hidden variation, immune recognition and shared infrastructure shape human life—and why a small molecular difference can become a global lesson in cooperation and uncertainty.
Breathing mechanics explained: the ideas that matter
Breathing mechanics explained through the ideas that matter: pressure, volume, flow, compliance, resistance, ventilation and gas exchange.
Fermentation microbiology explained: the ideas that matter
The core ideas in fermentation microbiology are simple but powerful: cells need redox balance, products depend on pathways, communities change environments, and conditions determine which metabolism wins.
How breathing mechanics work
How breathing mechanics work: the diaphragm, chest wall, elastic recoil, airway resistance and alveoli form a pressure-driven ventilation system.
Also explore blog articles and guides or search all DutyStation pages.