The moon is full today >>>

Time to make a wish☺️

My obsession with hardware stuffs😭😭

I will definitely come up with cool hardware project very soon.

I'd like to try lecturing students sometime, maybe for a year or two. I'd love to teach what I know best and create the kind of classroom I've always wished for.

But, how would I do that without having a degree?🙂😣

Good night🫣

Sometimes, it is good to lose our way in order to rediscover our path.

Well, this is not about a butterfly or a cockroach.

Only 41% of you have unmuted my channel. Please help me increase my views by unmuting it🙏

G-Wagon

Dream car?🫠🫣

What would it be?

I'm going to change name of this channel. Maybe to just "Henok".

What do you think? Give me reactions if you agree.


Already changed.

Comfort kills dreams.

Good morning🌞

Alright, everyone! After receiving multiple requests, I’m sharing the curriculum I once designed for my little nephew.
First, let me emphasize this: no one can truly teach you physics—you can only learn it yourself. Teachers and tutorials can provide an outline of the topics, but the real learning happens when you actively engage with physics by solving problems and applying concepts.

To excel in physics, you must first build a solid foundation in mathematics, as every aspect of physics is rooted in math. For instance, understanding Maxwell's equations requires fluency in calculus. Taking derivatives, integrating, and solving differential equations should feel as natural to you as breathing, even if someone wakes you in the middle of the night.
Astrophysics, in particular, is no easy field. It covers areas like astronomy, black holes, celestial mechanics, cosmology, and stellar physics. To navigate such topics, you need a strong command of both physics and math. Below is a step-by-step guide to the courses I recommend, with each step serving as a prerequisite for the next:
1. Algebra
2. Trigonometry
3. Basic Geometry
4. Precalculus (including complex numbers)
5. Linear Algebra (essential for understanding differential equations, which dominate physics and scientific processes)
6. Single-Variable Calculus
7. Multivariable Calculus
8. Complex Analysis
9. Vector Analysis
10. Ordinary Differential Equations (most natural phenomena can be described using these)
11. Partial Differential Equations
12. General Chemistry
13. Mathematical Physics (topics like integral equations, Hilbert spaces, Green’s functions, group theory, tensors, manifolds, calculus of variations, fiber bundles, and differential geometry and topology, which are especially relevant in astrophysics)
14. General Physics (Fundamentals of Physics by Halliday & Resnick)
15. Modern Physics (Modern Physics by Tipler & Llewellyn)
Once you’ve mastered these, you can move into astrophysics:
16. Astronomy
18. Plasma Physics
19. Magnetohydrodynamics
20. Cosmology
21. Stellar Astrophysics
22. High-Energy Astrophysics
23. Celestial Mechanics
24. Advanced Astrophysics Topics

The first 15 courses are essential before diving into astrophysics. Without a solid background, it’s nearly impossible to tackle college-level subjects like high-energy astrophysics.
I’m not trying to discourage anyone—far from it! My goal is to guide and support aspiring physicists like you. This curriculum represents, in my opinion, the bare minimum preparation needed for astrophysics.

If you’re ever stuck or need clarification, feel free to ask questions here. After mastering the fundamentals, you can explore specific branches of physics that captivate your interest.

Good luck on your journey!

Credit: @ies292
#Astrophysics #Physics #Roadmap

@HenokNet