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.
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The engineering challenge behind the lymphatic system
The lymphatic system is a distributed transport machine with no central pump: it must collect fluid, preserve direction, move cargo, and interface with immunity under changing mechanical conditions.
The engineering challenge behind the science of allergies
Managing allergy is a systems-engineering problem: detect the right trigger, measure a moving threshold, reduce exposure, deliver safe interventions, and preserve a margin for uncertainty.
The engineering challenge behind vaccine training
Designing a vaccine means optimizing a biological signal inside a real manufacturing and delivery system. The challenge is not merely finding an antigen; it is keeping the product consistent, usable, safe, and effective across people and…
The hidden history of the lymphatic system
The lymphatic system was not discovered in one flash: its history runs through chyle, thoracic ducts, competing anatomists, and a later shift from pipes to immune ecology.
The hidden history of the science of allergies
Allergy science did not arrive as one discovery. It grew through observations of hay fever, experiments on hypersensitivity, a new antibody class, and better ways to name what the body was doing.
The hidden history of vaccine training
The story of vaccination is not a single invention. It is a long transition from observation and risky experiments to laboratory standards, mass delivery, surveillance, and the shared memory of eradication.
The lymphatic system explained: the ideas that matter
Six durable ideas make the lymphatic system easier to understand: return, direction, surveillance, cargo, compartments, and failure modes.
The science of allergies explained: the ideas that matter
Six distinctions make allergy science easier to read: trigger versus response, sensitization versus symptoms, IgE versus the whole immune system, and relief versus prevention.
Vaccine training explained: the ideas that matter
The vocabulary around vaccines can feel technical, but a few distinctions do most of the explanatory work: active versus passive protection, what the target contains, how memory behaves, and how evidence is gathered.
What the lymphatic system teaches us about the world
The lymphatic system is a lesson in distributed infrastructure, negotiated boundaries, hidden flows, and why resilience depends on connections rather than central control.
What the science of allergies teaches us about the world
Allergy is a small, vivid lesson in systems thinking: protection depends on context, memory can misfire, boundaries are active, and resilience is built across people and places.
What vaccine training teaches us about the world
Vaccination reveals a general truth about complex systems: resilience comes from preparation, feedback, coordination, and fair access—not from a promise that surprises will disappear.
Antibiotic resistance explained: the ideas that matter
A compact conceptual guide to the vocabulary, evolutionary logic and practical choices that make antibiotic resistance understandable.
How antibiotic resistance works
A practical tour of selection, gene exchange and the molecular tricks that let bacteria survive drugs designed to stop them.
How the blood-brain barrier works
A guided tour of the living interface that keeps neural tissue stable while still admitting the molecules the brain needs.
The blood-brain barrier explained: the ideas that matter
Six durable ideas make the barrier easier to understand: selective gates, cellular teamwork, transport routes, exceptions, failure modes, and uncertainty.
The engineering challenge behind antibiotic resistance
Antibiotic resistance is a design problem spanning molecules, diagnostics, hospitals, incentives and ecosystems. Each layer has failure modes—and leverage points.
The engineering challenge behind the blood-brain barrier
Why delivering a useful molecule to the brain is a systems-engineering problem involving selectivity, timing, transport, and safety.
The engineering challenge behind the human microbiome
Turning microbiome science into reliable intervention is an engineering problem: measure a moving ecosystem, identify causal levers, deliver them to the right niche, and prove that the result is safe.
The hidden history of antibiotic resistance
Resistance did not arrive after the antibiotic age; it accompanied it from the start. A historical timeline reveals the recurring pattern of discovery, scale, selection and adaptation.
The hidden history of the blood-brain barrier
The barrier’s story is a history of dyes, disputed names, and a gradual shift from a mysterious wall to a dynamic cellular system.
The hidden history of the human microbiome
The microbiome feels like a twenty-first-century discovery, but its story runs from early microscopy through evolutionary classification, genome projects, and a change in what counts as a human trait.
The human microbiome explained: the ideas that matter
Forget the hype cycle. These are the concepts that make microbiome claims easier to read: habitat, function, resilience, causality, and the limits of a single sample.
What antibiotic resistance teaches us about the world
Antibiotic resistance is a lesson in evolution, networks, incentives and shared vulnerability—and a test of whether institutions can act across borders.
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