Science Max | FULL EPISODE | Rube Goldberg Machine | Experiments

Science Max - 9 Story
20 Aug 202021:08
EducationalLearning
32 Likes 10 Comments

TLDRIn this exhilarating video, Phil, the host of 'Science Max Experiments at Large,' embarks on a grand adventure to explore the wonders of gas pressure through the lens of fizzy drinks. He humorously attempts to create a carbonated beverage by blowing into water, only to realize the importance of pressure in the process. With the help of Cynthia from the Ontario Science Center, they conduct an experiment dubbed the 'Nucleation Fountain,' using mint candies with tiny imperfections that accelerate carbonation. The duo maximizes the experiment's impact by testing various carbonated beverages and modifying the delivery system for the mints. They also experiment with different bottle cap sizes to determine the optimal aperture for the highest fountain effect. The video concludes with a spectacular demonstration of the nucleation fountain using multiple bottles in a coordinated sequence, leaving viewers with a memorable lesson on the science behind carbonation and the joy of scientific exploration.

Takeaways
  • πŸ§ͺ The process of making a fizzy drink involves dissolving carbon dioxide gas under pressure, which creates bubbles when released.
  • πŸŒ€ Carbonation in drinks occurs more rapidly when the carbon dioxide has nucleation sites, such as tiny imperfections on candy, to attach and expand from.
  • πŸš€ To maximize the effect of a nucleation fountain, adding multiple nucleation sites simultaneously can increase the reaction.
  • πŸ” Experimentation with different carbonated beverages showed that diet cola produced the highest fountain.
  • πŸ’‘ A smaller aperture in the bottle cap can increase the pressure and height of the nucleation fountain.
  • πŸ› οΈ Creating a delivery mechanism to introduce nucleation sites efficiently is crucial for a successful experiment.
  • 🧼 The experiment demonstrated that carbonation can be applied to various substances beyond water, with mixed results.
  • πŸ”§ Using a vacuum chamber can cause objects like marshmallows to expand and then shrink as pressure changes.
  • 🌌 The Earth's atmosphere is composed of different layers, each with distinct properties and phenomena.
  • πŸŽ‰ A coordinated sequence of nucleation fountains can create a dramatic and 'maxed out' effect.
  • 🧽 The air inside a marshmallow contributes to its fluffiness, and this property can be manipulated through changes in pressure.
Q & A
  • What is the main focus of the science experiment conducted by Phil in the video?

    -The main focus of the experiment is to explore gas pressure and the process of carbonation, particularly how carbon dioxide gas creates bubbles in fizzy drinks.

  • Why doesn't simply blowing bubbles into water create a fizzy drink?

    -Blowing bubbles into water doesn't create a fizzy drink because there is no pressure applied. To dissolve carbon dioxide gas effectively, the container needs to be pressurized, as explained by Phil after checking the 'Book of Science'.

  • What is a nucleation site?

    -A nucleation site is a tiny imperfection on a surface that gas bubbles can attach to and expand from. In the experiment, the mint candy provides numerous nucleation sites for the carbon dioxide bubbles in the cola.

  • Why do the bubbles in a carbonated beverage prefer to form around nucleation sites?

    -Bubbles prefer to form around nucleation sites because these tiny imperfections provide a point for the gas molecules to aggregate and expand, making it easier for the bubbles to form and grow.

  • What is the term given to the experiment where mints are used to rapidly release carbonation from a bottle of cola?

    -The experiment is termed a 'nucleation fountain', as coined by Cynthia from the Ontario Science Center.

  • Why did adding more mints one at a time to the cola not work?

    -Adding more mints one at a time did not work because the bubbles were pushing the mints back out of the bottle. It was found to be more effective when all mints were added at the same time using a delivery mechanism.

  • What modification was made to the delivery mechanism to add mints to the cola bottle?

    -A delivery mechanism was created that involved a tube with a magnet holding the mints up. This tube was screwed onto the top of the bottle, and the mints were released by pulling the magnet outside.

  • What was the conclusion about the different types of carbonated beverages used in the nucleation fountain?

    -After experimenting with different beverages like diet cola, regular cola, lemon-lime soda, and club soda, it was found that diet science cola produced the highest fountain.

  • What was the reasoning behind trying a smaller aperture opening for the nucleation fountain?

    -The reasoning was that a smaller aperture would create higher pressure as the gas is forced through a smaller opening, which could potentially increase the height and intensity of the nucleation fountain.

  • What was the final modification to the nucleation fountain to maximize the experiment?

    -The final modification was to create a 'nucleation fountain car' with fancy wheels that spin well, using the medium aperture as it was found to be fairly big but not too small for the best results.

  • What did Phil and Cynthia learn about carbonation through their various experiments?

    -They learned that carbonation is a physical change, not a chemical reaction, and that the process can be influenced by factors such as pressure, the presence of nucleation sites, and the size and design of the container.

Outlines
00:00
πŸ§ͺ The Science of Carbonation and Nucleation Fountains

In this segment, Phil introduces viewers to the concept of gas pressure and the science behind fizzy drinks. He attempts to create a fizzy drink by blowing air into water, but discovers that pressure is necessary for carbon dioxide to dissolve and form bubbles. Phil then demonstrates how adding candy to a carbonated beverage rapidly releases carbonation by providing nucleation sites for the gas to expand. The experiment is named 'Nucleation Fountain' and is further explored with Cynthia from the Ontario Science Center, where they test different carbonated drinks and discuss ways to maximize the effect, such as using a smaller aperture for higher pressure.

05:01
πŸš€ Experimenting with Nucleation Fountains and Carbonation

The team conducts further experiments to enhance the nucleation fountain effect. They test various carbonated beverages and discover that diet cola produces the highest fountain. Phil theorizes that a smaller aperture could increase pressure and result in a higher fountain. They devise a new delivery system for the mints using a tube and magnet, leading to a successful nucleation fountain. They also explore the idea of launching the fountain sideways and consider using a larger container for an even bigger effect. Phil and Cynthia carbonate various substances, like pickle juice and milk, for comedic effect, before returning to their goal of maximizing the nucleation fountain.

10:02
🌌 Exploring Atmospheric Pressure and the Layers of Earth's Atmosphere

Phil demonstrates the concept of atmospheric pressure using an egg and a flask, explaining how pressure differences can cause objects to be pushed into containers or expand and contract. He then provides an educational overview of Earth's atmosphere, detailing the troposphere, stratosphere, mesosphere, thermosphere, and exosphere, and their respective characteristics. This section serves to contextualize the importance of pressure in the experiments conducted and in everyday life on Earth.

15:04
πŸŽ‰ The Maxed Out Nucleation Fountain and Vacuum Experiments

The team attempts to maximize the nucleation fountain by using a larger bottle, but the experiment fails due to loss of carbonation. They decide to use multiple bottles triggered in sequence to create a cascading effect. Phil also explores the effects of vacuum by placing marshmallows in a vacuum chamber, which expand and then shrink as air is removed and then returned. The marshmallows serve as an analogy for the behavior of gases under pressure changes. The segment culminates in a coordinated release of mints in multiple bottles, creating a 'science cola rain,' effectively maxing out the nucleation fountain.

20:06
🎈 Recap and Cleanup: The Nucleation Fountain Experiment

In the final segment, Phil recaps the nucleation fountain experiment, emphasizing the importance of carbonation and the role of mints in providing nucleation sites for rapid bubble formation. He and Cynthia celebrate their successful maxed-out experiment and humorously discuss the cleanup process, which involves a shower for Phil and a towel for Cynthia. The video ends with a reminder of the fun and educational nature of their experiments, encouraging viewers to try the nucleation fountain at home.

Mindmap
Keywords
πŸ’‘Science Experiment
A science experiment is a systematic procedure undertaken to make a discovery, test a hypothesis, or demonstrate a known fact. In the video, Phil performs large-scale everyday science experiments, emphasizing the concept of gas pressure and carbonation, which is central to the theme of the video.
πŸ’‘Carbon Dioxide Gas
Carbon dioxide (CO2) is a colorless, odorless gas that is vital for life on Earth but can also be a byproduct of human activities. In the context of the video, carbon dioxide is dissolved in fizzy drinks, creating the bubbles that make them fizzy. The script discusses the process of carbonation and decarbonation, which is a key element in the experiments conducted.
πŸ’‘Pressure
Pressure is the force exerted per unit area. In the video, it is discussed in the context of gas pressure, which is crucial for dissolving carbon dioxide in beverages. High and low pressure are compared to show their effects on gas behavior, which is central to the fizzy drink experiments.
πŸ’‘Carbonation
Carbonation is the process of dissolving carbon dioxide gas in a liquid, creating bubbles. It is a key concept in the video, as the experiments revolve around the release of carbonation from fizzy drinks. The video demonstrates how carbonation can be accelerated by introducing nucleation sites, such as mint candies, into the beverage.
πŸ’‘Nucleation Fountain
A nucleation fountain is a term coined in the video to describe the phenomenon where carbonation from a fizzy drink is rapidly released, creating a fountain-like effect. This is achieved by introducing mint candies with nucleation sites into the drink, which the carbon dioxide bubbles can attach to and expand, thus accelerating the release of carbonation.
πŸ’‘Diet Science Cola
Diet Science Cola is a fictional brand of fizzy drink used in the video. It is significant as it is the carbonated beverage that the experiments are based around. The script explores the effects of different types of carbonated beverages on the nucleation fountain, with Diet Science Cola being the one that produces the highest fountain.
πŸ’‘Atmosphere
The atmosphere is a layer of gases surrounding the Earth, which is crucial for weather, protecting life from harmful solar radiation, and providing air to breathe. In the video, the atmosphere is mentioned when discussing the layers of air above us, which is relevant to understanding air pressure and its effects on experiments.
πŸ’‘Vacuum Chamber
A vacuum chamber is an airtight container from which air has been removed to create a vacuum. In the video, a vacuum chamber is used to demonstrate the effects of reduced air pressure on objects like marshmallows, which expand and then shrink when pressure is reintroduced. This experiment illustrates the concept of pressure differences in an engaging and visual way.
πŸ’‘Mints
Mints are small confections that are used in the video as nucleation sites to accelerate the release of carbonation from fizzy drinks. The mints have tiny imperfections that provide a surface for carbon dioxide bubbles to form and expand, leading to the nucleation fountain effect. This is a practical application of the concept of nucleation in the context of the video's experiments.
πŸ’‘Physical Change
A physical change is a change in the state or appearance of a substance without altering its chemical composition. In the context of the video, the carbonation process and the subsequent release of carbon dioxide from fizzy drinks are examples of physical changes. The script emphasizes that the nucleation fountain is a physical change, as the chemical composition of the cola remains the same before and after the experiment.
πŸ’‘Maxing Out
In the video, 'maxing out' refers to the process of taking an experiment to its extreme or maximizing the outcome. This is a recurring theme throughout the script, as Phil and Cynthia attempt to increase the height and intensity of the nucleation fountain, and explore various methods to enhance the visual and scientific impact of their experiments.
Highlights

Phil takes everyday science experiments and performs them on a larger scale

This episode focuses on gas pressure and the concept of nucleation sites

Experiment involves using fizzy drinks and the carbonation process

Carbon dioxide gas is dissolved in water to create a fizzy drink

Pressure is needed to create bubbles in a fizzy drink

Candy with tiny imperfections acts as nucleation sites for carbonation

Adding multiple mints as nucleation sites creates a 'nucleation fountain'

Different carbonated beverages tested to see which creates the biggest fountain

Diet cola was found to create the highest fountain

Experimenting with different bottle cap sizes to increase pressure and height of fountain

Medium-sized aperture created the best balance of height and duration for the fountain

Creating a 'nucleation fountain car' by putting the setup on wheels and launching it

Using a vacuum chamber to explore the effects of reduced air pressure on various items

Maxing out the nucleation fountain by using multiple bottles in a coordinated sequence

Recap explains the science behind the nucleation fountain and the factors that affect it

Additional experiments carbonate unconventional liquids like pickle juice and mustard

Transcripts
Rate This

5.0 / 5 (0 votes)

Thanks for rating: