Nano-Based Muscles: Exploring Possibilities

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In summary, the conversation discusses the potential of using nanoscale motors to create powerful macroscopic muscles for robots. However, the square-cube law poses a challenge to this idea, as larger robots would not be able to move as easily and would require a significant amount of energy to power. This limitation could potentially be overcome by building smaller robots using the same principles, as seen in the field of micro-robotics.
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SkepticJ
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I few years ago I was reading on the Foresight website and found an http://www.foresight.org/Conferences/MNT10/Abstracts/Wright2/index.html". The power to weight ratio of the things, when they ever get built, is mind blowing.

I hit upon the idea of what if billions or trillions of the linear type of these motors were put together into macroscopic muscles. Not unlike how our muscle cells make up our macroscopic muscles. The difference here being the motors would be far stronger than our wimpy muscle cells. A robot actuated by them could pick up a truck easily, or have a vertical leap of hundreds of meters. Or I'm daft. Have I missed anything--like the square cube law--that throws wooden shoes into this idea? Of course the muscles would need some amazing batteries, a nice fat electrical line or a portable nuclear plant to power them, but hey...
 
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I'm dreaming. The square-cube law does indeed throw a wrench into this idea. The square-cube law states that, when an object's size is doubled, its mass increases eightfold and its strength increases only fourfold. This means that, theoretically, a larger robot actuated by these motors would not be able to move as easily as a smaller one. Additionally, the increased weight of the robot would require more energy to move, which could be difficult to provide if the robot is powered by batteries or a nuclear plant. That being said, depending on the application, it may still be possible to build robots actuated by these motors, just not in the same way as a human-sized robot. For example, in the field of micro-robotics, robots can be built using the same principles but at much smaller scales, which reduces the effect of the square-cube law and allows for greater mobility and strength than would be possible with a larger robot.
 
  • #3


Wow, the concept of nano-based muscles is truly fascinating! The idea of using trillions of these tiny motors to create macroscopic muscles with incredible strength is mind-blowing. It's exciting to think about the possibilities of what such technology could achieve.

Of course, as with any new technology, there are always potential challenges and limitations to consider. The square cube law is definitely an important factor to take into account. It states that as an object increases in size, its volume and weight increase exponentially while its surface area only increases linearly. This means that as you scale up the size of these nano-based muscles, their weight and power requirements would also increase exponentially. This could potentially make it difficult to power and control them effectively.

However, with advancements in battery technology and power sources, it's not impossible to imagine a future where these challenges are overcome. And the potential benefits of having incredibly strong and efficient muscles could greatly outweigh any obstacles.

Overall, I think your idea is very intriguing and certainly worth exploring further. Who knows, maybe one day we'll see robots with superhuman strength thanks to nano-based muscles!
 

What is nanotechnology and how does it relate to muscles?

Nanotechnology is the study and manipulation of matter on an extremely small scale, typically at the nanometer level. Nano-based muscles refer to the use of nanotechnology to create artificial muscles that mimic the movement and functions of natural muscles.

What are the potential applications of nano-based muscles?

Nano-based muscles have the potential to be used in a variety of applications, such as robotics, prosthetics, and medical devices. They could also be used in the development of more efficient and lightweight materials for aerospace and transportation industries.

How are nano-based muscles created?

There are various methods used to create nano-based muscles, but one common approach is through the use of nanocomposite materials. These materials consist of nanoparticles embedded in a polymer matrix, which can be stimulated by external sources such as electricity or light to produce movement.

What are the advantages of using nano-based muscles over traditional muscles?

Nano-based muscles have several advantages over traditional muscles. They can be more lightweight, have faster response times, and can be controlled more precisely. They also have the potential to be more durable and long-lasting.

What are the challenges and limitations of nano-based muscles?

One of the main challenges of nano-based muscles is their scalability. While they have been successfully created on a small scale, it is difficult to replicate the same results on a larger scale. Another limitation is the potential toxicity of the materials used in their creation, which must be carefully evaluated for their safety and environmental impact.

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