Plain English with Derek Thompson
Plain English with Derek Thompson

The Year's Biggest Breakthroughs in Science and Tech (Feat.: OK, But Seriously, What Is Quantum Computing?)

Our final episode of the year is also my favorite annual tradition: conversations with scientists about the most important and, often, just plain mind-blowing breakthroughs of the previous 12 months. Today we’re talking about "organ clocks" (we'll explain) and other key biotech advanc

Featured Speakers

Eric Topol Guest

Topics Discussed

Episode Summary

Executive Summary: The episode spans two big breakthrough stories: a clear-eyed explainer on quantum computing’s promise and limits, and a wide-ranging interview with Eric Topol on biotech advances in 2024. The biotech segment highlights lenacapavir’s near-cure-level HIV prevention, the rise of proteomics and organ-age clocks, and new AI-enabled inflammation detection as signs medicine is shifting from treatment to earlier, more precise prediction and prevention.

Main Topics: Quantum computing explained through quantum mechanics (Priority: 5/5): The host walks listeners from classical physics to superposition, entanglement, and the many-worlds interpretation to explain why quantum computing matters and why it remains hard to intuit. Google’s Willow chip and quantum hype vs reality (Priority: 5/5): The episode covers Google’s claim that Willow solved a benchmark in minutes that would take a classical supercomputer absurdly long, while stressing that this does not prove multiverse claims and that practical quantum advantage is still uncertain. Lenacapavir as a landmark HIV prevention breakthrough (Priority: 5/5): Eric Topol explains why the twice-yearly injectable stands out: extraordinary trial efficacy, a novel capsid target, and a model for long-acting medicines that could reshape prevention and adherence. Proteomics and organ-specific aging clocks (Priority: 4/5): Topol describes large-scale blood protein assays that can estimate biological age by organ, potentially identifying which organs are aging faster and enabling earlier intervention. Inflammation as an underappreciated driver of cardiovascular disease (Priority: 5/5): The discussion argues that heart disease prevention has overfocused on cholesterol and blockages, while missing the inflammatory process underlying plaque instability and heart attacks. AI and large biobanks are accelerating discovery (Priority: 4/5): UK Biobank and similar cohorts, combined with AI and multimodal data, are enabling validation of protein markers, organ clocks, and inflammation indices at unprecedented scale.

Key Arguments: Quantum mechanics is the deepest known description of reality, yet it is alien to intuition; quantum computers may help translate and exploit that language for useful computation. Many-worlds is not newly proven by Google’s quantum chip; the experiment does not settle the philosophy of quantum interpretation. Quantum computing’s clearest near-term value is likely in simulating quantum systems for chemistry, batteries, materials, and drug discovery, but its broader business impact remains unknown. Lenacapavir’s significance is not only efficacy but also its long-acting, twice-yearly dosing and its capsid-based mechanism, which could inspire other therapies. Proteomic blood tests may reveal which specific organs are aging out of sync, enabling more targeted prevention than broad aging proxies like telomeres. Inflammation is a major missing layer in cardiovascular medicine; better detection may reveal high-risk patients even without visible blockages. AI plus proteomics plus large biobanks are making it possible to connect biomarkers to long-term outcomes and validate them at population scale.

Data Points: Google quantum benchmark: 10 septillion years - Time a top supercomputer would reportedly need to solve the math problem Willow completed in five minutes Willow computation time: 5 minutes - Google’s reported runtime for the quantum benchmark Quantum chip qubits: 105 qubits - Willow chip described as having about twice the qubits of Google’s 2019 Sycamore chip Two-qubit operation fidelity: 99.9% - Recent engineering milestone cited as key to progress in quantum computing Sycamore qubits: 53 superconducting qubits - Google’s 2019 quantum chip milestone Lenacapavir trial result: 0% infections - One trial among 22,000 young women in Africa showed zero infections in the intervention group Lenacapavir trial efficacy: 96% - Another multi-continent trial reported efficacy of 96% HIV global burden: 40 million people - Estimated number of people living with HIV worldwide Annual AIDS-related deaths: 600,000 - Approximate yearly deaths from AIDS-related illness worldwide Proteins measured: 5,000 to 11,000 plasma proteins - Range of proteins measurable from a tiny blood sample using current platforms UK Biobank size: 550,000 participants - Primary long-term cohort cited for validating biomarkers and protein associations All of Us size: almost 800,000 participants - U.S. cohort mentioned as a growing diverse resource Our Future Health size: 5 million target / 2 million enrolled - UK cohort scaling up rapidly for population health research Heart inflammation risk: 30-fold risk - People with three inflamed coronary arteries had roughly a 29.8-fold higher heart attack risk One inflamed artery risk: 13-fold risk - Elevated heart attack risk associated with inflammation in one coronary artery Aging waves: around 35-45, 60, and 80 - Topol described aging as occurring in spurts rather than linearly

Pivotal Quotes: "I think I can safely say that nobody understands quantum mechanics." — Richard Feynman: Used to underscore how strange and incompletely intuitive quantum theory remains "God does not play dice with the universe." — Albert Einstein: Referenced as Einstein’s objection to the probabilistic implications of quantum mechanics "We’re not any longer going to rely on one layer. We’re going for the broad, you know, holistic story." — Eric Topol: Describing the future of multimodal health assessment using proteins, genomes, imaging, and EHR data

Implications: Medicine is shifting toward earlier detection, individualized risk, and long-acting prevention, while quantum computing remains promising but unproven in real-world advantage. Expect more biomarker-driven care, AI-assisted interpretation, and high-stakes competition over who validates these tools first.

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