2 particles in a 3d corkscrew over surface of a sphere

In summary: Yes, it is.In summary, Aloha! Trevor Avichennya Zenaide needs help with a math problem that is beyond his math skills. If anyone can answer it, I'd be very grateful!
  • #1
T.A. Zenaide
4
0
Aloha!

This is my first post, and I hope that I am posting in the correct area...

I need help with a math problem that is beyond my math skills. If anyone can answer it, I'd be very grateful!

Here's my problem:

Imagine two particles, say "a" and "b" that are traveling (in positive time -- time = 0 to 1) in a straight line directly towards each other. They encounter a sphere and exchange places via a 3-dimensional sine-wave, like a corkscrew, each maintaining an equal distance on either side of the surface of the sphere. (The line between them would be the diameter of the sphere.) They exit the sphere maintaining their original straight course.

Mahalo nui loa for any help :smile:,

Trevor Avichennya Zenaide
 
Physics news on Phys.org
  • #2
...so what is your question?? You haven't posed it yet! Also, I don't really understand what you mean by:

"they exchange places via a 3-dimensional sine-wave".
 
  • #3
Oh! I'm sorry I was unclear... What I mean by "exchange places" is like those math problems we did long, long ago when it was: Train A leaves the station at 10:00. Train B leaves another station at 11:00... etc... what time do they meet?

So, imagine that particle "a" and particle "b" are moving in a straight line towards each other, but there is a sphere in the way. The way they "exchange places" is that "a" and "b" hit the sphere on directly opposite sides of the sphere and the way they "exchange places" is by "a" moving one way on a 3d corkscrew path and "b" moving the equal and opposite way on that corkscrew path, and they both maintain "a connection" as an imaginary line that is the diameter of the sphere.

Is that clearer?
 
  • #4
I think i understand what you mean they are no longer moving in a strait line upon encountering the sphere and they are moving along its surface in a helix. However, you still haven't provided a question and I'm not sure if you mean to say that they ever leave the sphere and if so did they leave out the opposite end traveling strait the way the other one came?

Regardless there is still no question.
 
  • #5
I think that you mean that body A will leave the surface of the sphere at the entry point of body B, and vice versa. In any case, by saying that they are headed straight towards each other (I assume in a straight line), your problem is planar, so the bodies are going to travel along 2D space along a circle. In that case you can use simple circular motion equations to derive the kinematics (if that is what you are looking for?).
 
  • #6
Yes, that is what I mean, in that "a" leaves where particle "b" entered and vice-versa... However, they don't travel over a circle, they travel in a helix (thank you for the correct term) over the surface of a sphere.

Am I leaving anything out, now, that makes this an actual question? Whew! I didn't realize I was so imprecise when I started. Thank you both for helping me clarify my needs :smile:
 
  • #7
I guess my question is if at time = 0, particle "a" and particle "b" arrive at diametrically opposed places on the sphere, and when time = 1, particle "a" and particle "b" arrive at each other's starting point, what is the equation for both of them traveling in a helix over the surface of the sphere, say "a" going clockwise and "b" going counter-clockwise in the helix, both maintaining an equal and opposite path (separated by the diameter of the sphere)?

Is that a complete question?
 

1. What is the significance of 2 particles in a 3d corkscrew over surface of a sphere?

The significance of this system lies in its potential applications in physics and chemistry, particularly in the study of molecular motion and interactions. It can also provide insights into the behavior of complex systems and the principles governing their dynamics.

2. How does the corkscrew motion of particles affect their interactions on the surface of a sphere?

The corkscrew motion of particles introduces a level of complexity to their interactions on the surface of a sphere. This motion can result in non-linear and chaotic behavior, making it difficult to predict and understand the overall dynamics of the system.

3. Can this system be used to model real-world phenomena?

Yes, this system can be used to model a variety of real-world phenomena, such as the motion of molecules in a liquid or the behavior of particles in a colloidal suspension. By studying this simplified system, scientists can gain insights into the underlying principles governing complex systems in nature.

4. Are there any practical applications of studying 2 particles in a 3d corkscrew over surface of a sphere?

Yes, there are several practical applications of studying this system. It can be used to improve our understanding of molecular motion, which is important in fields such as drug design and material science. It can also aid in the development of new technologies, such as advanced sensors and drug delivery systems.

5. What are the limitations of using this system for scientific research?

One limitation of this system is that it is highly idealized and does not accurately represent the complexity of real-world systems. This means that the insights gained from studying this system may not directly translate to other systems. Additionally, the corkscrew motion may be difficult to observe and measure accurately, making it challenging to draw definitive conclusions from experimental data.

Similar threads

Replies
4
Views
1K
  • Introductory Physics Homework Help
Replies
2
Views
1K
Replies
2
Views
3K
  • Introductory Physics Homework Help
Replies
7
Views
3K
Replies
2
Views
4K
  • Introductory Physics Homework Help
Replies
5
Views
3K
  • Calculus and Beyond Homework Help
Replies
5
Views
3K
  • Mechanical Engineering
Replies
8
Views
2K
  • Advanced Physics Homework Help
Replies
5
Views
7K
Back
Top