从第 8 课开始进入高难攻坚段:前面我们解决了“找得到”(定位)和“认得替换”(第 9 课 320 组)。今天把最难的一类——科学类 P3 拿下。它替换跨度大、抽象语义多、还常混入人名/研究名锚点的乱序题。本篇 Neuroaesthetics(剑 11 T3P3)正是最典型的一篇。
先想 10 秒:同样是被动句、同样是长难句,为什么科学类 P3 普遍比人文类难做?
科学文章很少讲“人做了什么事”,而是讲概念:认知、神经活动、分形。题干很少能靠“原词复现”定位——它把你学过的替换再抽象一层。
blurred imagery(模糊画面)→ 题干写 the impact which Impressionist paintings have on our emotions。答案不是抓 blured,而是先认出“印象派→模糊画面→杏仁核→情绪”这条因果链。① 双乱序:单+摘要+判断混排,其中判断是观点判断题(YES/NO/NOT GIVEN,判断的是“作者/学者认为什么”);
② 人名+研究名锚点:Hawley-Dolan / Pepperell / Vartanian / Forsythe 四条研究线;
③ 科学结论句:“The longer they took, the more highly they rated”这类比例句,是长难句和判断题的高发区。
不只是本篇,以后考试里所有科学/技术类 P3 都按这套打。
科学文章一半以上考点挂在具体研究者身上。拿到文章先扫人名:谁 + 研究了什么 + 结论是什么。四条线建好,判断题直接按“谁说的”回段落验证。
科学句子的考点常是整条因果链:A 刺激 B → B 导致 C → 所以 D。单选和判断都爱考中间环节。做题时把“原因→结果”画出来,选项往里套。
选词摘要(Q31-33)先看空格前后决定词性/语义方向,再回原文找同义替换定位句,最后用词库 A-H 做排除——没用上的词就是干扰:它们可能出现在原文别的考点处。
which occur frequently in the natural world——“在自然界反复出现的事物”。回原文 fractals are common throughout nature,fractals = repeated motifs = repeated images,答案 H。D movements(动作)在原文是另一处的词,是干扰。YES/NO/NOT GIVEN 与 T/F/NG 最大区别:判断对象是作者/研究者的观点。NO 不是“跟原文矛盾”,而是“与作者观点相反”;文章没提到的观点 → NOT GIVEN。做题先圈题干动词(requires / depends / should),再回原文找那个人名。
前四个区块是今天最值得抄进笔记本的“科学类替换”——它们在本篇每一条考点上都能找到。
科学文章里观点动词后面几乎必出考点。做题先扫这几类词,锚定“谁在说”。
先限时 20 分钟做完 Q27–40,再逐题点按钮核对。注意:双乱序——单选 Q27-30 / 摘要 Q31-33 / 判断 Q34-39 / 末题 Q40。判断是观点判断(YES/NO/NG)。
AAn emerging discipline called neuroaesthetics is seeking to bring scientific objectivity to the study of art, and has already given us a better understanding of many masterpieces. The blurred imagery of Impressionist paintings seems to stimulate the brain’s amygdala, for instance. Since the amygdala plays a crucial role in our feelings, that finding might explain why many people find these pieces so moving.
BCould the same approach also shed light on abstract twentieth-century pieces, from Mondrian’s geometrical blocks of colour, to Pollock’s seemingly haphazard arrangements of splashed paint on canvas? Sceptics believe that people claim to like such works simply because they are famous. We certainly do have an inclination to follow the crowd. When asked to make simple perceptual decisions such as matching a shape to its rotated image, for example, people often choose a definitively wrong answer if they see others doing the same. It is easy to imagine that this mentality would have even more impact on a fuzzy concept like art appreciation, where there is no right or wrong answer.
CAngelina Hawley-Dolan, of Boston College, Massachusetts, responded to this debate by asking volunteers to view pairs of paintings – either the creations of famous abstract artists or the doodles of infants, chimps and elephants. They then had to judge which they preferred. A third of the paintings were given no captions, while many were labelled incorrectly – volunteers might think they were viewing a chimp’s messy brushstrokes when they were actually seeing an acclaimed masterpiece. In each set of trials, volunteers generally preferred the work of renowned artists, even when they believed it was by an animal or a child. It seems that the viewer can sense the artist’s vision in paintings, even if they can’t explain why.
DRobert Pepperell, an artist based at Cardiff University, creates ambiguous works that are neither entirely abstract nor clearly representational. In one study, Pepperell and his collaborators asked volunteers to decide how ‘powerful’ they considered an artwork to be, and whether they saw anything familiar in the piece. The longer they took to answer these questions, the more highly they rated the piece under scrutiny, and the greater their neural activity. It would seem that the brain sees these images as puzzles, and the harder it is to decipher the meaning, the more rewarding is the moment of recognition.
EAnd what about artists such as Mondrian, whose paintings consist exclusively of horizontal and vertical lines encasing blocks of colour? Mondrian’s works are deceptively simple, but eye-tracking studies confirm that they are meticulously composed, and that simply rotating a piece radically changes the way we view it. With the originals, volunteers’ eyes tended to stay longer on certain places in the image, but with the altered versions they would flit across a piece more rapidly. As a result, the volunteers considered the altered versions less pleasurable when they later rated the work.
FIn a similar study, Oshin Vartanian of Toronto University asked volunteers to compare original paintings with ones which he had altered by moving objects around within the frame. He found that almost everyone preferred the original, whether it was a Van Gogh still life or an abstract by Miro. Vartanian also found that changing the composition of the paintings reduced activation in those brain areas linked with meaning and interpretation.
GIn another experiment, Alex Forsythe of the University of Liverpool analysed the visual intricacy of different pieces of art, and her results suggest that many artists use a key level of detail to please the brain. Too little and the work is boring, but too much results in a kind of ‘perceptual overload’, according to Forsythe. What’s more, appealing pieces – both abstract and representational – show signs of ‘fractals’: repeated motifs recurring in different scales. Fractals are common throughout nature, for example in the shapes of mountain peaks or the branches of trees. It is possible that our visual system, which evolved in the great outdoors, finds it easier to process such patterns.
HIt is also intriguing that the brain appears to process movement when we see a handwritten letter, as if we are replaying the writer’s moment of creation. This has led some to wonder whether Pollock’s works feel so dynamic because the brain reconstructs the energetic actions the artist used as he painted. This may be down to our brain’s ‘mirror neurons’, which are known to mimic others’ actions. The hypothesis will need to be thoroughly tested, however. It might even be the case that we could use neuroaesthetic studies to understand the longevity of some pieces of artwork. While the fashions of the time might shape what is currently popular, works that are best adapted to our visual system may be the most likely to linger once the trends of previous generations have been forgotten.
IIt’s still early days for the field of neuroaesthetics – and these studies are probably only a taste of what is to come. It would, however, be foolish to reduce art appreciation to a set of scientific laws. We shouldn’t underestimate the importance of the style of a particular artist, their place in history and the artistic environment of their time. Abstract art offers both a challenge and the freedom to play with different interpretations. In some ways, it’s not so different from science, where we are constantly looking for systems and decoding meaning so that we can view and appreciate the world in a new way.
entirely 是绝对词)。科学句的难点在从句嵌套与比例结构。先拆主干再看修饰,最后对照参考翻译自己写一遍。
the + 比较级, the + 比较级结构 + and 并列第三项——比例句,科学文高频。① 先建研究线地图(人名 + 研究 + 结论);
② 画因果链(A 刺激 B → B 导致 C → 所以 D),答案挂在链条某一段;
③ 摘要选词:语法定方向 → 替换定位 → 词库排除;
④ 观点判断:先圈观点动词,NO = 与作者观点相反,而非“与原文矛盾”。