Ryan Jackson
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I get how to derive black hole equations mathematically. But conceptually, how does it make sense that the radius of a black hole is 2MG/c^2, for example?
The discussion centers on the conceptual understanding of black hole equations, specifically the Schwarzschild radius defined as R = 2GM/c². Participants emphasize that while deriving black hole equations mathematically is achievable, grasping the conceptual implications of this radius requires a deeper understanding of Einstein's field equations. The Schwarzschild solution describes the gravitational field around a non-rotating, spherically symmetric body, and the singularity occurs when R equals 2GM/c². The conversation highlights the importance of interpreting the units of GM/c² as a length, reinforcing the conceptual framework behind black hole physics.
PREREQUISITESPhysicists, students of general relativity, and anyone interested in the conceptual foundations of black hole physics will benefit from this discussion.
Ryan Jackson said:I get how to derive black hole equations mathematically.
Ryan Jackson said:But conceptually, how does it make sense that the radius of a black hole is 2MG/c^2, for example?
Ryan Jackson said:I get how to derive black hole equations mathematically. But conceptually, how does it make sense that the radius of a black hole is 2MG/c^2, for example?
Ryan Jackson said:I get how to derive black hole equations mathematically. But conceptually, how does it make sense that the radius of a black hole is 2MG/c^2, for example?