Understanding the Science of 'Sync' : Cornell Daily Sun

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In summary, the conversation discusses the concept of spontaneous order and its application to various systems, from traffic patterns to human behavior. The article mentioned is about a book that explains how order can emerge in seemingly chaotic systems. The conversation also touches on the idea of herd mentality and the role it plays in creating order. However, the article and the conversation focus on the idea that even simple systems can exhibit patterns and order without the need for complex explanations. Chaos theory is also mentioned as a way to quantify and understand this concept of spontaneous order.
  • #1
Ivan Seeking
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Now enters the science of sync. In a recent book, Sync: The Emerging Science of Spontaneous Order, Prof. Steven Strogatz, theoretical and applied mechanics, explains how order emerges in far-flung systems ranging from populations of flashing insects to power grids to pedestrians crossing bridges en masse.

http://cornelldailysun.com/articles/9046/
 
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  • #2
A few years back, I was driving on a moderately traveled highway (Or 138 between Reedsport and Sutherlin) It was a nice day on a pretty road and I was in no real hurry so I choose a nice wide spot at the side of the road for a bit of a break. I sat there for quite a while when it became very apparent that traffic traveled in packs, there would be long (several minutes) periods of virtual silence then a pack of cars would pass 2,3 or more generally, and very rarely a single. Since then I have observed this same thing virtually every where I go.

I have always marvelled that this, while striving to find the center of the space between packs, of course this is impossible because the packs travel at different speeds, they merge, separate and change the cars in the pack but the packs remain. I have assumed that stop lights were the beginning of packs but there may be more to it then that.

(I think this may be an instance of the syncing phenomena)
 
  • #3
People generally have herd mentality and will drive as fast as the guy in front of him. They will pass relatively seldom.

- Warren
 
  • #4
Originally posted by Integral (I think this may be an instance of the syncing phenomena)
I read the article (thanks Ivan,
more than usually interesting to
me) and your well expressed obser-
vation of the tendency of drivers
to "clump" when there is no obvi-
ous cause for it (like traffic
lights), and thought about it.

Chroot, accurately I believe, has
pointed to herding tendencies to
explain the traffic "clumps".
This makes me wonder how far the
authors of the book are willing
to go when it comes to human
psychology and their Science Of
Spontaneous Order
? Is the herd
mentality accounted for by their
reasoning?

Strictly speaking I think the
traffic situation that would fall
squarely into their "Science Of
Spontaneous Order" would be one in
which all the cars on the road
inexplicably sought out the mean
point between the car in front and
the car behind them. This would
result in a situation where traf-
fic would always be observed to
be seeking regular spacing of the
vehicles at play at any given
time.

But if they embrace exclusively
psychological phenomena as also
falling into their "Science", then
the urge to herd is an example of
what they're talking about.

I see a potential problem with the
whole thing, also for psycholog-
ical reasons, but at a different
level: Order is often in the eye
of the beholder. Some would say
the traffic is in chaos untill
all red cars are clumped together.
Others would require all Hondas
to be driving in the same direct-
ion at any given time, never in
both directions at once. A third
might require that all six-cyl-
inder vehicles must pass every
four cylinder vehicle they happen
to overtake, and all eight
cylinder vehicles must pass all
four and six cylinder vehicles, in
order for "sync" to be said to
exists.

Integral saw "order" in irregular
clumping because statistically
there should probably have been
instances of regularly spaced cars
interspersed with the clumped
ones, which he did not observe.
Was this because a different
"order" (herd mentality) was gov-
erning the situation?

Is there, then, a way to distin-
guish what might constitute, I
hate to use this word, but nothing
else comes to mind, "objective"
order, from what we might call
"idiosynchratic" order?

Recall, if you will, the Feynman
story where he expresses mock
amazement at having spotted a
liscence plate: ARW 357, and says
something like "What were the
chances of that!??, Of all the
plates, I happened to see THAT
one!" or words to that effect.

He was adressing a different issue
but I think it fits here as well,
because we always have to ask our-
selves if the order we percieve is
idiosynchratic to our own person-
ality, or if it is something we
could think of as (again, I'm not
happy with this word) "objective".

I am intrigued by this book, and
will see if the library has it.
(I'm leary of the choice of words
"Spontaneous Order", but I'm not
sure why. Maybe because it calls
the term "Spontaneous Human Com-
bustion" to mind.)

-Zooby
 
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  • #5
zoobyshoe: I think you miss the point of chaos theory here. A major factor is that simple systems do not have simple behaviour, but patterns can emerge from them.

The article in fact deliberately ignores herd-mentality et al. It's point is that even with the simplist system, we can still obtain patterns of action. That when we see complexity or order, it is not necessary to call on a more complex phenomenon to establish order. It doesn't say herd mentality etc doesn't have an effect - it says it doesn't need to, to make what we see.

What spontaneous order is saying is that if we imagine an universe stripped to it's barest essentials, where everything is chance, how much do we need to generate what we see today? The answer which it is trying to give is very little.

Order is often in the eye
Now this is true. This is where the mathematical chaos theory comes in. Order vs chaos in mathematics is based on the idea of the Lyapunov exponent, which is based on whether the system diverges based on initial conditions, and complexity is based on either the fractal dimensions of a system, or some facet of information theory. Chaos theory - which spontaneous order is about, does try to quantify this in objective terms.

Integral saw "order" in irregular
clumping because statistically
there should probably have been
instances of regularly spaced cars
interspersed with the clumped
ones, which he did not observe.
What chaos theory additionally argues is that looking for a statistical average is in itself misleading, in many systems.
 
  • #6
Fz+

You are quite correct: I did miss
the point of Chaos Theory. Before
this day I knew nothing about
Chaos Theory. I came away from the
article having already forgotten
Chaos Theory was mentioned in it.

Your response, then, pretty nearly
answers my question, in sketch
form, the details to be filled in
by learning more about Chaos
Theory.

I would be interested to find out
the history and cast of characters
in a nutshell, if this is some-
thing you're interested in dis-
coursing upon.

Thanks much, very informative
response.

-Zooby
 

1. What is the concept of "sync" in science?

"Sync" is a term used to describe the synchronization or coordination of different systems or elements. In the context of science, it refers to the coordination of biological, physical, and/or social systems in order to achieve a desired outcome or function.

2. How does understanding "sync" contribute to scientific research?

Understanding the concept of "sync" is crucial in scientific research as it helps scientists to better understand and predict the behavior of complex systems. By studying how different systems synchronize and interact with each other, scientists can gain valuable insights into various phenomena and develop more accurate models and theories.

3. Can "sync" be applied to different fields of science?

Yes, the concept of "sync" is applicable to various fields of science, including biology, physics, chemistry, and social sciences. It plays a key role in understanding and explaining complex phenomena and processes in these fields.

4. How do scientists study "sync" in different systems?

Scientists use various methods and techniques to study "sync" in different systems. These include mathematical modeling, computer simulations, and experimental studies. By combining these approaches, scientists can gain a comprehensive understanding of how synchronization occurs in different systems.

5. What are the potential applications of understanding "sync" in science?

The understanding of "sync" has a wide range of potential applications in science. It can help researchers to develop better treatments for diseases, improve efficiency in industrial processes, and enhance our understanding of complex natural phenomena. It can also aid in developing technologies that require precise synchronization, such as communication networks and self-driving cars.

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