The Slow Mo Guys · Video summary
Golf Ball VS Pint in Slow Mo - The Slow Mo Guys
In this video, The Slow Mo Guys attempt to hit a golf ball into a pint of non-alcoholic beer while capturing the action in slow motion, showcasing the challenges and hilarity that ensue during their attempts. After numerous misses, they finally achieve a satisfying shot, highlighting the fun and unpredictability of their experiments.
Watch on YouTube ↗Key takeaways
- The Slow Mo Guys showcased their attempts at hitting a golf ball into a pint of non-alcoholic beer, emphasizing the fun and unpredictability of their experiments.
- Using a camera at approximately 2200 FPS, they captured slow-motion footage, allowing viewers to appreciate the details of the action.
- Despite numerous misses, the hosts maintained a light-hearted spirit, highlighting the hilarity of their failed attempts and the camaraderie involved.
- They discussed the importance of camera protection, using polycarbonate glass which is 250 times stronger than glass, to safeguard their equipment during the shots.
- Ultimately, they succeeded in hitting the golf ball into the pint, demonstrating that with patience and practice, they could achieve their goal.
- Try your hand at golfing in a fun and unconventional way, like attempting to hit objects into containers, to add a twist to your practice.
Chapters
- 0:00🎯 Introduction and Concept Setup
- 0:57🎯 Preparing the Shot
- 2:02🎯 Golf Swing Practice
- 3:26🎯 Attempting the Shots
- 5:44🎯 Gear Testing and Damage
- 9:21🎯 Attempting to Break the Pint
- 10:48🎯 Considering Different Golf Clubs
- 20:47🎯 Final Shots and Successful Impact
- 21:28🎯 Post-Impact Reactions and Reflections
- 21:43🎯 Visitor's Shot and Reflection on the Video
- 22:41🎯 Closing Remarks and Outtakes
The digest
This video presents an in-depth exploration of the challenge and artistry involved in filming a golf ball striking a pint of non-alcoholic beer in extreme slow motion. The Slow Mo Guys attempt to perfectly hit the pint with a golf ball launched from a driver club, filming the moment with a high-speed camera placed dangerously close behind the pint to achieve a captivating and detailed slow-motion capture. This experiment blends precision sportsmanship with high-speed cinematography, appealing to enthusiasts of slow-motion video technology, sports fans, and those interested in physics and visual storytelling.
Concept and Setup of the Shot
The core idea is to film the impact of a golf ball hitting directly into a pint glass filled with non-alcoholic beer, capturing the interaction of liquid, glass, and ball at approximately 2200 frames per second. The camera is positioned dangerously close behind the glass protected by multiple layers of polycarbonate sheets intended to shield the equipment from debris while maintaining clear visuals. The creators discuss the technical details of protection and camera selection, emphasizing the importance of using polycarbonate due to its high strength and shatter resistance—planned in layers of 6mm thickness.
Reinforcing the genuine difficulty, the hosts admit their lack of golf skill, describing attempts to "duff" or gently hit the ball into the pint despite the challenge of hitting a small target with precision and appropriate loft.
Keep reading in The Digest
The full 5-minute article, 7 more sections, and every new episode from The Slow Mo Guys and the creators you follow.
- Execution Challenges and Multiple Attempts
- Special Appearance and the Successful Shot
- Unexpected Outcomes and Reflections
- Commentary on Technique and Equipment
- Final Thoughts and Context
- Practical Implications & Takeaways
- Actionable Steps for Similar Projects
More from The Slow Mo Guys
Crossbow vs Triple Pendulum in Slow Motion - The Slow Mo Guys
The Slow Mo Guys attempt a high-difficulty trick shot by skewering multiple swinging bottles with a single crossbow bolt, revealing the complex physics and extreme precision required.
When 50,000 volts go through a wire at 5,000,000 FPS - The Slow Mo Guys
The High-voltage wire experiment reveals how electrical discharges and plasma behave at millions of FPS, showcasing vaporization, shock waves, and the microsecond dynamics of lightning-like arcs.