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sWozzAres
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Does mainstream thinking, following the crowd as it were, produce breakthroughs in science, or is it "out of the box" thinking that gives impetus to progress?
sWozzAres said:Does mainstream thinking, following the crowd as it were, produce breakthroughs in science, or is it "out of the box" thinking that gives impetus to progress?
Almost always the men who achieve these fundamental inventions of a new paradigm have been either very young or very new to the field whose paradigm they change.
sWozzAres said:Does mainstream thinking, following the crowd as it were, produce breakthroughs in science, or is it "out of the box" thinking that gives impetus to progress?
That does not imply that they weren't completely versed in the state of the art, it just means they made their mark soon after finishing their formal educations: 30 year olds, not 50 year olds.Andre said:That's not always what (big file) Thomas Kuhn page 90 observes:
russ_watters said:That does not imply that they weren't completely versed in the state of the art, it just means they made their mark soon after finishing their formal educations: 30 year olds, not 50 year olds.
Greg Bernhardt said:If you're asking if any scientific breakthroughs have occurred by a day dreaming layman, it'd say likely very few.
If you are asking if many scientific breakthroughs have occurred by mainstream educated scientists with creative minds, then I'd say quite a bit more.
The error is in thinking that being mainstream inhibits creativity. When the truth is that all that is mainstream today was a creative "breakthrough" in the past. Mainstream science is a collection of breakthroughs. Science is creating breakthroughs at record pace if you read the news, so I don't understand how someone could think that following a past collection of breakthroughs somehow restricts the ability to achieve future breakthroughs.
FredGarvin said:How can we say you've been on a wild goose chase if you haven't even said what you were looking for?
Posted: Dec 8, 2007Me said:I'm looking for the most efficient vehicle of course.
Andre said:Oh I don't know,
Just some loose thoughts from the sofa.
Suppose that A is assumed to be a fact, but it's wrong. However way back, when A was hypothezed, the scientific tools were not sharp enough to realize that A was wrong. Actually, less accurate tools made it reasonable and logical that A could be right. And since A was put forward by a real authority, it became the truth and it entered the textbooks. All hypothetically.
Now to finish a formal education, you'd have to learn about A. It would be an exam question and since it's in the textbooks, after your education A is one of the axioms, nobody should dare to challenge.
Now picture somebody who has to chose between careers. She choses another career path but she always keeps interest in that other branch of science with the wrong A. She doesn't read those textbooks but occasionally she reads scientific publications and abstracts in which sometimes A is challenged: "Despite this and that we could not reproduce A, however this and that factor may have been obscuring the outcome and we model that blah blah".
Now our scientist in the other branch -not biased by erratic textbook wishdom- may get curious. Why is she always reading that A can't be reproduced? An she may -after being retired- just dig in it and find out unbiasedly why A is wrong.
She may be a little older than 30 years or even 50 years.
Maybe this is a little the case if we substitute "she" for Alfred Wegener perhaps.
Oh and she is definitely not a daydreaming laywoman of course. Just a sceptical hard worker.
micromass said:You seem to be missing that theories are still being tested by scientists every day.
Andre said:but occasionally she reads scientific publications and abstracts in which sometimes A is challenged: "Despite this and that we could not reproduce A, however this and that factor may have been obscuring the outcome and we model that blah blah".
We have learned a lot from experience about how to handle some of the ways we fool ourselves. One example: Millikan measured the charge on an electron by an experiment with falling oil drops, and got an answer which we now know not to be quite right. It's a little bit off, because he had the incorrect value for the viscosity of air. It's interesting to look at the history of measurements of the charge of the electron, after Millikan. If you plot them as a function of time, you find that one is a little bigger than Millikan's, and the next one's a little bit bigger than that, and the next one's a little bit bigger than that, until finally they settle down to a number which is higher.
Why didn't they discover that the new number was higher right away? It's a thing that scientists are ashamed of--this history--because it's apparent that people did things like this: When they got a number that was too high above Millikan's, they thought something must be wrong--and they would look for and find a reason why something might be wrong. When they got a number closer to Millikan's value they didn't look so hard. And so they eliminated the numbers that were too far off, and did other things like that. We've learned those tricks nowadays, and now we don't have that kind of a disease.
russ_watters said:(To Andre)
Doesn't sound to me like an accurate biography, nor a good example of (greg's interpretation of) what the OP is after.
It may be an example of establishment dogma for an idea, but it isn't an example of a layperson breaking the paradigm.
Abstract
The first late-glacial lake sediments found in Greenland were analyzed with respect to a variety of environmental variables. The analyzed sequence covers the time span between 14 400 and 10 500 calendar yr B.P., and the data imply that the conditions in southernmost Greenland during the Younger Dryas stadial, 12 800–11 550 calendar yr B.P., were characterized by an arid climate with cold winters and mild summers, preceded by humid conditions with cooler summers. Climate models imply that such an anomaly may be explained by local climatic phenomenon caused by high insolation and Föhn effects. It shows that regional and local variations of Younger Dryas summer conditions in the North Atlantic region may have been larger than previously found from proxy data and modeling experiments.
Andre said:Depends what a lay persons definition is.
There is no "depends" about it. ModusPwnd's definition is fine.Andre said:Depends what a lay persons definition is.
The bio you linked also lists physics and astronomy. He was pretty multi-disciplinary.The scientist educated in another branch (Wegener - meteorology) causing a paradigm shift in another branch (geophysics).
Wegener is not an example of that, as far as I can tell. It doesn't explicitly say in the bio you linked whether he was aware of the prevailing theory of the time, but given is broad knowledge I would have to assume he was.But you can focus on an A and build the box next to find out that A does not fit in that box.
"Out of the box thinking" in science refers to the ability to approach problems and research in unconventional ways, often challenging traditional methods and ideas. It involves creativity, critical thinking, and open-mindedness to find innovative solutions and make new discoveries.
Out of the box thinking is important in scientific progress because it allows scientists to break away from conventional thinking and explore new possibilities. It can lead to breakthroughs and advancements in various fields of science, ultimately pushing the boundaries of our understanding and knowledge.
Scientists can cultivate out of the box thinking by actively seeking out diverse perspectives and ideas, challenging their own assumptions and biases, and being open to new and unconventional approaches. They can also engage in activities that promote creativity and brainstorming, such as collaborating with others and engaging in thought experiments.
Some examples of out of the box thinking in scientific history include Galileo's heliocentric model of the solar system, Einstein's theory of relativity, and the discovery of penicillin by Alexander Fleming. These breakthroughs challenged established beliefs and led to significant advancements in their respective fields.
Out of the box thinking can benefit society by driving progress and innovation in various industries, improving our understanding of the world and how it works, and addressing complex societal issues. It can also inspire and encourage others to think creatively and challenge the status quo, leading to a more dynamic and forward-thinking society.