
David Kaiser
MIT physicist and historian. Explores primordial black holes and their connections to cosmic inflation.
Top 3 podcasts with David Kaiser
Ranked by the Snipd community

34 snips
May 12, 2025 • 1h 53min
David Kaiser: MIT Physicist - These Black Holes Are Older Than the Universe
David Kaiser, an MIT physicist and historian, delves into the realm of primordial black holes, theorized to have formed in the universe's infancy. He discusses their potential implications for dark matter, cosmic inflation, and how they might reshape our understanding of the early universe. The conversation weaves through the interplay of quantum theory and cosmology, highlighting fascinating connections between these tiny black holes and high-energy neutrinos. Kaiser's insights on the historical evolution of scientific thought further enrich this captivating exploration.

12 snips
Mar 30, 2020 • 1h 35min
90 | David Kaiser on Science, Money, and Power
David Kaiser, an MIT physicist and historian of science, delves into the complex dynamics between funding and scientific progress throughout history. He discusses how financial backing has shaped physics from the era of Galileo to today, highlighting the Cold War's influence on research. Kaiser also sheds light on the ethical dilemmas of private versus government funding, the evolution of grant applications, and the drastic funding fluctuations in physics from the 70s to the 90s. His insights reveal a fascinating yet challenging reality facing modern science.

5 snips
Sep 4, 2024 • 60min
Episode 79: Primordial Black Holes with QCD Color Charge with Elba Alonso-Monsalve and David Kaiser
Elba Alonso-Monsalve, an expert on dark matter and primordial black holes, teams up with David Kaiser, a researcher investigating black hole formation from matter distribution. They delve into the fascinating idea that tiny black holes could explain dark matter, formed during cosmic inflation. The discussion highlights the distinction between primordial and regular black holes, and the role of quantum chromodynamics. They explore implications for early universe conditions and screening effects in curved space-time, illuminating new avenues in cosmology.


