Passage Three
Why the inductive and mathematical sciences, after their first rapid development at the culmination of Greek civilization, advanced so slowly for two thousand yearsand why in the following two hundred years a knowledge of natural and mathematical science has accumulated, which so vastly exceeds all that was previously known that these sciences may be justly regarded as the products of our own timesare questions which have interested the modern philosopher not less than the objects with which these sciences are more immediately conversant. Was it the employment of a new method of research, or in the exercise of greater virtue in the use of the old methods, that this singular modern phenomenon had its origin? Was the long period one of arrested development, and is the modern era one of normal growth? Or should we ascribe the characteristics of both periods to so-called historical accidentsto the influence of conjunctions in circumstances of which no explanation is possible, save in the omnipotence and wisdom of a guiding Providence?
The explanation which has become commonplace, that the ancients employed deduction chiefly in their scientific inquiries, while the moderns employ induction, proves to be too narrow, and fails upon close examination to point with sufficient distinctness the contrast that is evident between ancient and modern scientific doctrines and inquiries. For all knowledge is founded on observation, and proceeds from this by analysis, by synthesis and analysis, by induction and deduction, and if possible by verification, or by new appeals to observation under the guidance of deductionby steps which are indeed correlative parts of one method; and the ancient sciences afford examples of every one of these methods, or parts of one method, which have been generalized from the examples of science.
A failure to employ or to employ adequately any one of these partial methods, an imperfection in the arts and resources of observation and experiment, carelessness in observation, neglect of relevant facts, by appeal to experiment and observationthese are the faults which cause all failures to ascertain truth, whether among the ancients or the moderns; but this statement does not explain why the modern is possessed of a greater virtue, and by what means he attained his superiority. Much less does it explain the sudden growth of science in recent times.
The attempt to discover the explanation of this phenomenon in the antithesis of facts and theories or facts and ideasin the neglect among the ancients of the former, and their too exclusive attention to the latterproves also to be too narrow, as well as open to the charge of vagueness. For in the first place, the antithesis is not complete. Facts and theories are not coordinate species. Theories, if true, are factsa particular class of facts indeed, generally complex, and if a logical connection subsists between their constituents, have all the positive attributes of theories.
Nevertheless, this distinction, however inadequate it may be to explain the source of true method in science, is well founded, and connotes an important character in true method. A fact is a proposition of simple. A theory, on the other hand, if true has all the characteristics of a fact, except that its verification is possible only by indirect, remote, and difficult means. To convert theories into facts is to add simple verification, and the theory thus acquires the full characteristics of a fact.
1. The title that best expresses the ideas of this passage is
[A]. Philosophy of mathematics. [B]. The Recent Growth in Science.
[C]. The Verification of Facts. [C]. Methods of Scientific Inquiry.
2. According to the author, one possible reason for the growth of science during the days of the ancient Greeks and in modern times is
[A]. the similarity between the two periods.
[B]. that it was an act of God.
[C]. that both tried to develop the inductive method.
[D]. due to the decline of the deductive method.
3. The difference between fact and theory
[A]. is that the latter needs confirmation.
[B]. rests on the simplicity of the former.
[C]. is the difference between the modern scientists and the ancient Greeks.
[D]. helps us to understand the deductive method.
4. According to the author, mathematics is
[A]. an inductive science. [B]. in need of simple verification.
[C]. a deductive science. [D]. based on fact and theory.
5. The statement Theories are facts may be called.
[A]. a metaphor. [B]. a paradox.
[C]. an appraisal of the inductive and deductive methods.
[D]. a pun.
Vocabulary
1. inductive 归纳法
induction n.归纳法
2. deductive 演绎法
deduction n。演绎法
3. culmination 到达顶/极点
4. conversant 熟悉的,精通的
5. exercise 运用,实行,执行仪式
singular 卓越的,非凡的,独一无二的
6. conjunction 结合,同时发生
7. omnipotence 全能,无限权/威力
8. Providence (大写)指上帝,天道,天令
9. commonplace 平凡的,陈腐的
10. inquiry 调查,探究(真理,知识等)
11. doctrine 教义,学说,讲义
12. correlative 相互关联的
13. antithesis 对立面,对偶(修辞学中),对句
14. coordinate 同等的,并列的
15. subsist 生存,维持生活
16. attribute 特征,属性
17. connote 意味着,含蓄(指词内涵)
简析雅思听力考试中的三个数字考点
雅思听力备考:听写练习全方位指导
论文化背景知识在雅思听力中的重要性
雅思听力之听力中混淆视听的短语
雅思听力之备考中的误区
雅思听力衔接语对成绩的帮助
雅思听力考试常见的替换规律
雅思听力高频词汇:课题研究
雅思听力高频词汇:动物与植物
详解雅思听力答案的大写规则
雅思听力备考方法介绍(基础篇)
雅思听力高频词汇:证件办理
雅思听力备考中需要避开的八大陷阱
雅思听力备考需要了解的模仿原则
雅思听力Section 1中的经典陷阱
雅思听力常见的八类陷阱
基础不好一样能过雅思听力6分
雅思听力提高不止需要熟能生巧
雅思听力配对题的解题技巧介绍
雅思听力:选择题型解题方法介绍
雅思听力的十一个评分标准介绍
雅思听力简单表格题的解题技巧
雅思听力中的配对题例题分析
雅思听力训练中应该掌握的四个正确方法
雅思听力观点题的难点突破方法
考生分享雅思听力提高的方法
有效提高雅思听力水平的四个要点
雅思听力高频词汇:预约医生
雅思听力备考需做好量的把握
雅思听力之有效提高听力的技巧
不限 |
英语教案 |
英语课件 |
英语试题 |
不限 |
不限 |
上册 |
下册 |
不限 |