This bouncing molotov shows the weird ways CSGO molotovs work

A viral video clip captured an extraordinary molotov incident on Mirage’s mid lane, demonstrating the unpredictable nature of Counter-Strike: Global Offensive’s incendiary grenade physics. This rare bounce sequence reveals how CSGO’s engine handles projectile interactions with environmental objects.

While experienced Mirage players regularly use one or two well-placed molotovs to secure entry into the A bombsite, this particular throw exhibited behavior that seemed almost intentional rather than random.

The social media footage showcases what occurs when a CSGO grenade impacts a stationary prop at the perfect angle, causing it to rebound along its original flight path. Though players accidentally dropping molotovs at their feet happens occasionally, this event provides perfect context to explore the underlying mechanics governing molotov bounce behavior.

CSGO’s molotovs interact with the game environment through sophisticated collision detection systems, primarily determined by how the grenade calculates whether detonation should occur. Despite this clip documenting an exceptionally uncommon occurrence, controlled bounce throws remain a legitimate tactical option. On Mirage’s A site, for instance, players positioned in palace can effectively molotov under dark by deliberately banking the grenade off the ramp-side wall surface.

The remarkable footage displays the attacker’s grenade arcing into snipers’ nest before colliding with the bench prop and instantly reversing direction back through the window. The precise combination of impact angle, velocity calculation, and server tick registration that produced this perfect return trajectory represents an extraordinary alignment of game physics variables. CSGO veterans understand that the game’s velocity simulations can occasionally behave unexpectedly, though this typically manifests as sudden deceleration rather than perfect反弹. This specific Mirage bounce scenario likely won’t be replicated in the near future due to its statistical improbability.

All of CSGO’s grenades operate differently in the game’s engine

Significant functional variations exist between when CSGO’s diverse grenade types activate their effects. The high-explosive grenade operates on a fixed countdown timer initiated upon release. Once this predetermined interval elapses, detonation becomes guaranteed regardless of environmental factors. Flashbang grenades similarly function according to their own internal timing mechanisms.

CSGO’s smoke grenades employ distinctly different activation logic compared to HE or flash variants. Here, the game engine continuously monitors whether the smoke canister has achieved complete motion cessation before triggering deployment. This explains why certain smoke placements effectively block sightlines yet prove inefficient for execute scenarios due to extended activation delays. If a smoke grenade requires multiple bounces before dispersing, players should consider alternative methods for controlling that specific angle.

The most effective flashbang technique we’ve discovered for securing B site control on Inferno can be mastered by selecting the image below.

Mastering molotov deployment requires understanding both optimal bounce angles and common player errors. The most frequent mistake involves underestimating bounce physics, leading to grenades returning toward the thrower’s position. Always account for surface angles – perpendicular impacts produce more predictable results than glancing collisions.

For consistent results, practice these key bounce locations: Mirage A site from palace, Inferno banana wall bounces, and Dust2 mid to B doorway throws. Each requires specific throw strengths and release points that experienced players have refined through extensive testing.

Advanced players should note that server tick rate influences bounce consistency. On 64-tick matchmaking servers, molotovs may behave slightly differently than on 128-tick competitive platforms. This variance explains why some practiced throws occasionally fail despite perfect execution.

CSGO’s development team acknowledged the molotov grenade’s tactical power during early development phases and implemented specific constraints on effective range and deployment angles. Without these carefully calibrated restrictions, CSGO matches would become dominated by area denial tactics, fundamentally altering game balance.

Periodically, CSGO’s grenade systems and physics engine combine to produce both amusing glitches and frustrating inconsistencies. The highlighted video excellently demonstrates one of numerous intriguing phenomena CSGO can generate under precisely aligned conditions.

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