- Mon Feb 21, 2011 12:00 am
#36504
Complete Question Explanation
Must Be True. The correct answer choice is (A)
This stimulus involves a discussion of mathematical theories and their applications. The “gauge
field theory” was investigated in the nineteenth century, but the theory wasn’t applied to quantum
mechanics until fairly recently. Another area of mathematics, differential geometry, was also
investigated by Gauss, well ahead of Einstein’s application of related, “offspring” concepts to his
theory of general relativity.
The question stem asks which one of the answer choices is best illustrated by the examples
presented. In an effort to prephrase this answer choice, we should note that the main link between the
two examples presented in the stimulus is that they both reflect mathematical discoveries which were
applied to concepts a long time after they were initially conceived.
Answer choice (A): This is the correct answer choice. New theories are often applied long after
their initial discovery—this reflects the concept prephrased above, and the example of Gauss’
investigation of differential geometry, the offspring of which was later applied by Einstein to the
exploration of general relativity.
Answer choice (B): The author of the stimulus alludes to the point that there are sometimes wide
spans of time between the conception of a mathematical idea and its application, but there is no
reference made to any such specific anticipation on the part of the mathematicians.
Answer choice (C): It is not clear that modern discoveries in physics would have been impossible
without 19th century mathematical advances—even though they may have facilitated the later
discoveries, this does not necessarily mean that the modern discoveries would have been impossible
without earlier advances. Rather, the examples in the stimulus are offered to refl ect the lapse that
sometimes occurs before an idea is applied.
Answer choice (D): While it may be true that the nineteenth century stands out as a period of great
mathematical progress, there is no way to know based on the information provided; since the
stimulus contains no reference whatsoever to the degree of progress during any other time periods,
there is no basis for such comparison. Since we cannot conclude that the nineteenth century held any
such distinction based on the stimulus, this cannot be the correct answer choice.
Answer choice (E): While mathematics might advance more quickly than other sciences, this is not
illustrated by the information contained in the stimulus. If anything, the stimulus points out the time
lapse between conception and application, indicating that mathematics in some cases advances rather
slowly, but there is no basis for comparison to other fields.
Must Be True. The correct answer choice is (A)
This stimulus involves a discussion of mathematical theories and their applications. The “gauge
field theory” was investigated in the nineteenth century, but the theory wasn’t applied to quantum
mechanics until fairly recently. Another area of mathematics, differential geometry, was also
investigated by Gauss, well ahead of Einstein’s application of related, “offspring” concepts to his
theory of general relativity.
The question stem asks which one of the answer choices is best illustrated by the examples
presented. In an effort to prephrase this answer choice, we should note that the main link between the
two examples presented in the stimulus is that they both reflect mathematical discoveries which were
applied to concepts a long time after they were initially conceived.
Answer choice (A): This is the correct answer choice. New theories are often applied long after
their initial discovery—this reflects the concept prephrased above, and the example of Gauss’
investigation of differential geometry, the offspring of which was later applied by Einstein to the
exploration of general relativity.
Answer choice (B): The author of the stimulus alludes to the point that there are sometimes wide
spans of time between the conception of a mathematical idea and its application, but there is no
reference made to any such specific anticipation on the part of the mathematicians.
Answer choice (C): It is not clear that modern discoveries in physics would have been impossible
without 19th century mathematical advances—even though they may have facilitated the later
discoveries, this does not necessarily mean that the modern discoveries would have been impossible
without earlier advances. Rather, the examples in the stimulus are offered to refl ect the lapse that
sometimes occurs before an idea is applied.
Answer choice (D): While it may be true that the nineteenth century stands out as a period of great
mathematical progress, there is no way to know based on the information provided; since the
stimulus contains no reference whatsoever to the degree of progress during any other time periods,
there is no basis for such comparison. Since we cannot conclude that the nineteenth century held any
such distinction based on the stimulus, this cannot be the correct answer choice.
Answer choice (E): While mathematics might advance more quickly than other sciences, this is not
illustrated by the information contained in the stimulus. If anything, the stimulus points out the time
lapse between conception and application, indicating that mathematics in some cases advances rather
slowly, but there is no basis for comparison to other fields.