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Theory what drives
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Theory what drives
these hcp to BCC transitions which are
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these hcp to BCC transitions which are
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these hcp to BCC transitions which are
actually very common in metals or
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actually very common in metals or
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actually very common in metals or
anything close packed at low temperature
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anything close packed at low temperature
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anything close packed at low temperature
to something less closep
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to something less closep
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to something less closep
um most people will argue that it is the
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um most people will argue that it is the
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um most people will argue that it is the
atomic vibrations that is essentially a
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atomic vibrations that is essentially a
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atomic vibrations that is essentially a
vibrational entropy difference okay the
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vibrational entropy difference okay the
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vibrational entropy difference okay the
close packed phase tends to be stiffer
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close packed phase tends to be stiffer
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close packed phase tends to be stiffer
the less Clos P phas tends to be softer
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the less Clos P phas tends to be softer
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the less Clos P phas tends to be softer
remember softer means lower frequencies
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remember softer means lower frequencies
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remember softer means lower frequencies
lower frequencies means higher entropy
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lower frequencies means higher entropy
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lower frequencies means higher entropy
higher entropy means you become favored
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higher entropy means you become favored