A black hole is a region of spacetime where gravity is so strong that nothing — no particles or even electromagnetic radiation such as light — can escape from it.
The Schwarzschild radius (sometimes historically referred to as the gravitational radius) is a physical parameter that shows up in the Schwarzschild solution to Einstein's field equations, corresponding to the radius defining the event horizon of a Schwarzschild black hole.
Create a function that takes the name and the mass (in solar masses) of a black hole as an argument and returns the Schwarzschild radius, the Schwarzschild density and the type of black hole.
Consider:
c = 299792458
G = 6.67430e-11
pi = 3.141592
sun_mass = 1.99e30
Types of black holes:
| Type | Solar Mass |
|---|---|
| Supermassive black hole | > 1e5 |
| Intermediate-mass black hole | > 1e2 and <= 1e5 |
| Stellar black hole | > 1e-1 and <= 1e2 |
| Micro black hole | <= 1e-1 |
black_holes("APM 08279+5255", 2.3e10) ➞
---------- Black Hole APM 08279+5255 ----------
Schwarzschild radius = 6.80e+13 m
Schwarzschild density = 3.48e-02 kg/m3
Type of black hole = Supermassive black hole
black_holes("Messier 87", 7.22e9) ➞
---------- Black Hole Messier 87 ----------
Schwarzschild radius = 2.13e+13 m
Schwarzschild density = 3.53e-01 kg/m3
Type of black hole = Supermassive black hole
black_holes("Messier 110", 1.45e4) ➞
---------- Black Hole Messier 110 ----------
Schwarzschild radius = 4.29e+07 m
Schwarzschild density = 8.75e+10 kg/m3
Type of black hole = Intermediate-mass black hole
Express the Schwarzschild radius and the Schwarzschild density using scientific notation with two decimal places.