This summary translates and analyzes the provided Indonesian transcript detailing the solution to a projectile motion problem.

Projectile Motion Analysis (Gerak Parabola)
📌 The problem involves a particle launched from sloping ground with an initial velocity ($V_0$) at an elevation angle ($\theta$) of 37 degrees.
🎯 The target hit is 10 m high ($Y=10$ m) and a horizontal distance of 20 m ($X=20$ m) from the launch point, with gravitational acceleration ($G$) set to 10 m/s².
➡️ The calculation first determines the time of flight ($t$) by relating horizontal distance: $X = V_{0x} \cdot t = (V_0 \cos 37^\circ) \cdot t$.
➡️ Substituting known values, $V_0 t$ is found to be 25 (since $\cos 37^\circ = 0.8$, $20 = 0.8 \cdot V_0 t$, so $V_0 t = 25$).

Calculating Initial Velocity ($V_0$)
📐 The vertical displacement equation is used: $Y = V_{0y} \cdot t - \frac{1}{2} G t^2$, where $V_{0y} = V_0 \sin 37^\circ$.
🔢 Substituting $Y=10$, $G=10$, and $\sin 37^\circ = 0.6$: $10 = (0.6 V_0 t) - 5t^2$.
⏳ By substituting the known value $V_0 t = 25$: $10 = 0.6(25) - 5t^2$, simplifying to $10 = 15 - 5t^2$.
⏱️ Solving for $t^2$: $5t^2 = 15 - 10 = 5$, resulting in $t^2 = 1$, so the time of flight $t$ is 1 second.
⚡ Finally, $V_0$ is determined using $V_0 t = 25$. Since $t=1$ s, $V_0$ equals 25 m/s.

Key Points & Insights
➡️ Projectile Physics Methodology: Successfully solving projectile problems requires decoupling the horizontal motion (constant velocity, $X=V_{0x} t$) and vertical motion (constant acceleration, $Y=V_{0y} t - \frac{1}{2} G t^2$).
➡️ Trigonometric Values: Key trigonometric values utilized were $\cos 37^\circ = 0.8$ and $\sin 37^\circ = 0.6$ for simplification.
➡️ Result Confirmation: The initial launch velocity ($V_0$) required to hit the specified target coordinates is 25 m/s.

📸 Video summarized with SummaryTube.com on Oct 11, 2025, 08:48 UTC