1 . “Assume you are wrong.” The advice came from Brian Nosek, a psychology professor, who was offering a strategy for pursuing better science.

To understand the context for Nosek’s advice, we need to take a step back to the nature of science itself. You see despite what many of us learned in elementary school, there is no single scientific method. Just as scientific theories become elaborated and change, so do scientific methods.

But methodological reform hasn’t come without some fretting and friction. Nasty things have been said by and about methodological reformers. Few people like having the value of their life’s work called into question. On the other side, few people are good at voicing criticisms in kind and constructive ways. So, part of the challenge is figuring out how to bake critical self-reflection into the culture of science itself, so it unfolds as a welcome and integrated part of the process, and not an embarrassing sideshow.

What Nosek recommended was a strategy for changing the way we offer and respond to critique. Assuming you are right might be a motivating force, sustaining the enormous effort that conducting scientific work requires. But it also makes it easy to interpret criticisms as personal attacks. Beginning, instead, from the assumption you are wrong, a criticism is easier to interpret as a constructive suggestion for how to be less wrong — a goal that your critic presumably shares.

One worry about this approach is that it could be demoralizing for scientists. Striving to be less wrong might be a less effective motivation than the promise of being right. Another concern is that a strategy that works well within science could backfire when it comes to communicating science with the public. Without an appreciation for how science works, it’s easy to take uncertainty or disagreements as marks against science, when in fact they reflect some of the very features of science that make it our best approach to reaching reliable conclusions about the world. Science is reliable because it responds to evidence: as the quantity and quality of our evidence improves, our theories can and should change, too.

Despite these worries, I like Nosek’s suggestion because it builds in cognitive humility along with a sense that we can do better. It also builds in a sense of community — we’re all in the same boat when it comes to falling short of getting things right.

Unfortunately, this still leaves us with an untested hypothesis (假说): that assuming one is wrong can change community norms for the better, and ultimately support better science and even, perhaps, better decisions in life. I don’t know if that’s true. In fact, I should probably assume that it’s wrong. But with the benefit of the scientific community and our best methodological tools, I hope we can get it less wrong, together.

1. What can we learn from Paragraph 3?

A．Reformers tend to devalue researchers’ work.

B．Scientists are unwilling to express kind criticisms.

C．People hold wrong assumptions about the culture of science.

D．The scientific community should practice critical self-reflection.

2. The strategy of “assuming you are wrong” may contribute to ______.

A．the enormous efforts of scientists at work	B．the reliability of potential research results
C．the public’s passion for scientific findings	D．the improvement in the quality of evidence

3. The underlined word “demoralizing” in Paragraph 5 means ______.

A．discouraging

B．ineffective

C．unfair

D．misleading

4. The tone the author uses in talking about the untested hypothesis is ______.

A．doubtful but sincere	B．disapproving but soft
C．authoritative and direct	D．reflective and humorous

2 . Art Builds Understanding

Despite the long history of scholarship on experiences of art, researchers have yet to capture and understand the most meaningful aspects of such experiences, including the thoughts and insights we gain when we visit a museum, the sense of encounter after seeing a meaningful work of art, or the changed thinking after experiences with art. These powerful encounters can be inspiring, uplifting, and contribute to well-being and flourishing.

    1     It contributes to facilitating a better understanding of ourselves, the human condition, and moral and spiritual concepts. The question is how that happens — what are the attributes of meaningful experiences of art?

According to the mirror model of art developed by Pablo P. L. Tinio, aesthetic reception corresponds to artistic creation in a mirror-reversed fashion. Artists aim to express ideas and messages about the human condition or the world at large.     2     This results in the build-up of layers of materials — from initial studies and sketches to the final, refined piece. A viewer’s initial interaction with an artwork starts where the artist has left off. Their interaction first involves the processing surface features, such as color, texture, and the finishing touches applied by the artist during the final stages of the creative process.     3    

In addition, art making and art viewing are connected by creative thinking. Research in a lab at Yale University shows that an educational program that uses art appreciation activities builds creative thinking skills. It showed that the more time visitors spent engaging with art and the more they reflected on it, the greater the correspondence with the artists’ intentions and ideas.     4    

Correspondence in feeling and thinking suggests a transfer — between creator and viewer — of ideas, concepts, and emotions contained in the works of art. Art has the potential to communicate across space and time.     5     What it takes for this to happen is active engagement with art in contexts that facilitate this engagement, especially museums.

A．The viewers gain a new perspective on the story.

B．The theory of aesthetic cognitivism describes the value of art.

C．This helps to create connections and insights that otherwise would not happen.

D．To do so, they explore key ideas and continually expand them as they develop their work.

E．After spending more time with the work, the viewer begins to access the ideas of the artist.

F．For example, in one activity, people are asked to view a work of art from different perspectives.

G．Participants were more original in their thinking when compared to those who did not take part in the program.

3 . How to Design a Small Garden

Even if you don’t have a large area in your yard, you can still make a beautiful garden that maximizes the space you have by following tips.

    1    . Look for a place in your yard where you can see your garden from a window or a spot in your yard so that you’re able to enjoy it. Make sure you can walk into your garden with ease to make it easier to take care of your plants.     2    .

Plan the layout for your garden by drawing the outline on the paper. Start by sketching longer rectangles（矩形）for your garden beds so they’re to scale for the actual size you want them.     3    . Be sure to leave an 18-inch space between garden beds so you can easily walk between them and care for your plants.

Arrange your design so there are focal points. Aim to have several aspects of your garden design unique so they stand out from the rest of your plants.     4    . Take into consideration where you want people to focus or have their attention drawn to when they look at your garden, and plan your design around those spots. Focal points help your garden feel more inviting and make it more visually pleasing.

Put similar plants across from one another to create rhythm and symmetry(对称). Rather than put different plants in each of your garden beds, choose to use the same plant or ones that have similar textures or colors so they’re across from one another.     5    .

A．And avoid any inconvenience caused by difficult access

B．Try to position smaller plants in between larger ones

C．Pick a place where you can easily get to your garden

D．You may still be able to measure the length of the rectangles

E．Then divide the rectangles into smaller sections for different plants

F．This could be a statue or a fountain placed in the center or on either side

G．That way, when you look at your garden, it will look inviting and make the area feel more balanced

4 . Atomic shapes are so simple that they can’t be broken down any further. Mathematicians are trying to turn to artificial intelligence (AI) for help to build a periodic table of these shapes, hoping it will assist in finding yet-unknown atomic shapes.

Tom Coates at Imperial College London and his colleagues are working to classify atomic shapes known as Fano varieties, which are so simple that they can’t be broken down into smaller components. Just as chemists arranged element s in the periodic table by their atomic weight and group to reveal new insights, the researchers hope that organizing these atomic shapes by their various properties will help in understanding them.

The team has given each atomic shape a sequence of numbers based on its features such as the number of holes it has or the extent to which it bends around itself. This acts as a bar code (条形码) to identify it. Coates and his colleagues have now created an AI that can predict certain properties of these shapes from their bar code numbers alone, with an accuracy of 98 percent.

The team member Alexander Kasprzyk at the University of Nottingham, UK, says that the AI has let the team organize atomic shapes in a way that begins to follow the periodic table, so that when you read from left to right, or up and down, there seem to be general patterns in the geometry (几何) of the shapes.

Graham Nib lo at the University of Southampton, UK, stresses that humans will still need to understand the results provided by AI and create proofs of these ideas. “AI has definitely got unbelievable abilities. But in the same way that telescopes (望远镜) don’t put astronomers out of work, AI doesn’t put mathematicians out of work,” he says. “It just gives us new backing that allows us to explore parts of the mathematical landscape that are out of reach.”

The team hopes to improve the model to the point where missing spaces in its periodic table could point to the existence of unknown shapes.

1. What is the purpose of building a periodic table of shapes?

A．To gain deeper insights into the atomic shapes.

B．To create an AI to predict the unknown shapes.

C．To break down atomic shapes into smaller parts.

D．To arrange chemical elements in the periodic table.

2. What can the bar code of each atomic shape tell us?

A．Its holes.	B．Its bends.
C．Its atomic weight.	D．Its properties.

3. What does the underlined word “backing” in paragraph 5 mean?

A．Design.

B．Help.

C．Duty.

D．Threat.

4. What is the main idea of the text?

A．Thanks to AI, new atomic shapes have been discovered.

B．Mathematicians turn to AI to create more atomic shapes.

C．AI helps build a relationship between chemistry and maths.

D．A periodic table of shapes can be built with the help of AI.

5 . Fresh fish should have a mild smell. Strong fishy smells are the first signs to go bad. How do the fishy smells come from?

It can be several days from when the fish are caught to when they reach the supermarket. In that time, bacteria that grow naturally in fish start to consume a substance called trimethylamine N-oxide(TMAO)in fish. These bacteria change TMAO into trimethylamine (TMA), the substance responsible for the fishy smells. Bacteria in fish can also change lysine(赖氨酸)into cadaverine(尸胺), a substance that’s associated with breaking down the fish once they are caught and giving off fishy smell.

Chemical reactions can also lead to fishy smells. This happens through the oxidation(氧化)of fat. Fish are an important source of omega-3 fatty acids. When these fats are exposed to oxygen, they oxidize and break down into the substance that you can smell.

To slow down the fishy smell, what is beyond question is that the less time between when the fish are caught and when they reach the kitchen, the better. But today, fish are often flown across the globe. To keep smell-producing bacteria at bay, the fish must be frozen or kept at the low temperature possible as soon as they are caught and cleaned.

Controlling fat oxidation can function as well, especially for fattier fish species. While freezing slows bacterial growth, it does not stop fat oxidation. This reaction will occur as long as oxygen is present. Fatty fish are usually not frozen because, despite the cold temperature, they’re going to oxidize pretty fast unless they are stored in a low oxygen container. That’s why those species are often canned.

It’s also important to remember that smell is not always an indicator of safety, especially in processed fish products. “What you might consider the fishy smell may be a delicacy in another culture,” said Carl A. Batt, a professor of food science at Cornell University.

1. Which of the following has the fishy smell?

A．Fish fat.

B．TMAO.

C．Cadaverine.

D．Lysine.

2. What is the best way to reduce the fishy smell of fat fish species?

A．Drying them in the air.	B．Storing them in closed containers.
C．Carefully cleaning them.	D．Exposing them to rich oxygen.

3. What is Carl A. Batt’s attitude to the fishy smell?

A．Objective.

B．Negative.

C．Acceptable.

D．Unclear.

4. How is the text organized?

A．Topic—Example—Conclusion.	B．Topic—Comparison—Opinion.
C．Question——Cause——Solution.	D．Question—Effect—Opinion.

8 . Ann has been severely paralysed (瘫痪)for more than 18 years. She cannot speak and normally communicates. But now, she has been able to speak through an image on the computer using technology that translated her brain signals into speech and facial expressions.

The advance raises hopes that the technology could be on the edge of transforming the lives of people who have lost the ability to speak due to conditions like strokes (中风).

The latest technology uses tiny electrodes (电极) put on the top layer of the brain to detect electrical activity in the part of the brain that controls speech and face movements. These signals are translated directly into a digital avatar’s (化身) speech and facial expressions including smiling, frowning or surprise.

The team put 253 paper-thin electrodes on the top layer of Ann’s brain over an area important to speech. Afterwards Ann worked with the team to train the system to detect her unique brain signals for various speech sounds by repeating different phrases repeatedly. The computer learned 39 distinctive sounds and a Chat GPT-style language system was used to translate the signals into understandable sentences. This was then used to control an avatar with a voice personalised to sound like Ann’s voice before the injury, based on a recording of her speaking at her wedding.

The technology was not perfect, translating words incorrectly 28% of the time in a test run involving more than 500 phrases, and it generated brain-to-text at a rate of 78 words a minute, compared with the 110–150 words typically spoken in natural conversation. However, scientists said the latest advances in accuracy and speed suggest the technology is now at a point of being practically useful for patients. A crucial next step is to create a wireless form that could be put beneath the skull (颅骨).

1. How can Ann speak?

A．By tiny electrodes on her brain.

B．Through an avatar using the latest technology.

C．Through repeating different phrases repeatedly.

D．By a technology that detects her brain signals.

2. What is paragraph 3 mainly about?

A．How the technology works.

B．How the technology benefits the patients.

C．How the technology translates the brain signal.

D．How the technology is put into wide application.

3. Which is unnecessary to make the avatar sound like Ann?

A．Ann’s cooperation.	B．Ann’s facial expressions.
C．An AI language system.	D．A recording of Ann’s speaking.

4. What do we know about the technology according to the last paragraph?

A．It is a promising way to help patients.

B．Its translating speed is too slow.

C．It cannot be applied to patients.

D．It is not accurate in translating at all.

9 . Animal appear to predict earthquakes by sensing electricity in the air — the first study to find reliable evidence of the phenomenon has shown.

Cameras revealed an “amazing” drop in the number of animals up to 23 days before a major quake hit their rainforest home at Yanachaga National Park in Peru. Lead scientist Dr Rachel Grant, from Anglia Ruskin University, said, “The results showed that just before the earthquake, animals’ activity dropped right down.”

On a normal day the cameras placed around Yanachaga National Park record between 5 and 15 animals. But in the 23 days before the earthquake, the number of animals dropped to five or fewer per day. No animals were photographed at all on five of the seven days immediately before the quake.

Another study showed that animal activity remained normal in the park over a different period when seismic (地震的) activity was low. Co-author, professor Friedemann Freund, said, “The cameras were located at an altitude of 900 meters. If air ionization occurred, the animals would escape to the valley below, where there were fewer positive ions ( 离子). With their ability to sense their environment, animals can help us understand small changes that occur before major earthquakes.”

Other evidence suggested that before the earthquake, the air around the high mountain sites filled with positive ions that can be produced when rocks are placed under stress. Positive ions have been known to cause ill effects in humans as well as animals. Scientists believe the animals were made to feel uncomfortable by the positive ions, leading them to avoid the area. They are thought to have escaped to lower ground, where the air was less ionized. The findings may help experts develop better short-term seismic forecasts.

1. How did scientists conduct the study?

A．By comparing different animals’ habits.

B．By observing animals in high mountains.

C．By explaining the positive ion phenomenon.

D．By analyzing images of animals they obtained.

2. What can be inferred from animal activity before earthquakes?

A．The ground at a lower altitude is less ionized.

B．Cameras normally record more animals per day.

C．Earthquake warnings can be detected in lower places.

D．The activity of animals and earthquakes is consistent.

3. What can we learn from the text?

A．The findings make for accurate seismic forecast.

B．Animals tend to be uneasy with more positive ions.

C．Positive ions make humans and animals depressed.

D．All the animals remain abnormal before the earthquake.

4. What can be a suitable title for the text?

A．Negative Influence of Positive Ions.

B．Ions’ Destruction to the Environment.

C．Animals’ Behavior Before Earthquakes.

D．Creatures’ Ability to Predict Earthquakes.

10 . Philosophers have a bad reputation for expressing themselves in a dry and boring way. The ideals for most philosophical writing are precision, clarity, and the sort of conceptual analysis that leaves no hair un-split.

There is nothing wrong with clarity, precision, and the like — but this isn’t the only way to do philosophy. Outside academic journals, abstract philosophical ideas are often expressed through literature, cinema, and song. There’s nothing that grabs attention like a good story, and there are some great philosophical stories that delight and engage, rather than putting the reader to sleep.

One of the great things about this is that, unlike formal philosophy, which tries to be very clear, stories don’t wear their meanings on their sleeve — they require interpretation, and often express conflicting ideas for the reader to wrestle with.

Consider what philosophers call the metaphysics (形而上学) of race — an area of philosophy that explorers the question of whether or not race is real. There are three main positions that you can take on these questions. You might think that a person’s race is written in their genes (a position known as “biological realism”). Or you might think of race as socially real, like days of the week or currencies (“social constructionism”). Finally, you might think that races are unreal — that they’re more like leprechauns (一种魔法精灵) than they are like Thursdays or dollars (“anti-realism”).

A great example of a story with social constructionist taking on race is George Schuyler’s novel Black No More. In the book, a Black scientist named Crookman invents a procedure that makes Black people visually indistinguishable from Whites. Thousands of African Americans flock to Crookman’s Black No More clinics and pay him their hard-earned cash to undergo the procedure. White racists can no longer distinguish those people who are “really” White from those who merely appear to be White. In a final episode, Crookman discovers that new Whites are actually a whiter shade of pale than those who were born that way, which kicks off a trend of sunbathing to darken one’s skin-darkening it so as to look more While.

Philosophically rich stories like this bring more technical works to life. They are stories to think with.

1. What does the author think of philosophical stories?

A．The meaning behind is very obvious.

B．They am extremely precise and formal.

C．They often cause conflicts among readers.

D．They are engaging and inspire critical thinking.

2. Which category might “Christmas” fall into according to paragraph 4?

A．Social constructionism.	B．Anti-realism.
C．Biological realism.	D．Literary realism.

3. What is Black No More in paragraph 5 mainly about?

A．Racial issues caused by skin colors.

B．A society view on race and self-image.

C．Black people accepted by the white society.

D．The origin of sun bathing among white people.

4. What is the best title of the text?

A．Stories Made Easy	B．Stories to Think with
C．Positions in Philosophy	D．Nature of Philosophical Writing