Print publications have lots of advantages. Paper is pleasant to handle, easy to read, and very portable: you can read it almost anywhere. On the other hand, print has its weaknesses. Paper is expensive, and articles are often cut to fit the space available, printing and distributing paper is expensive and takes time. Printed materials are expensive to store and almost impossible to search, Electronic publishing offers solutions to all these problems.
Suppose a publisher makes the electronic copy of a newspaper or magazine available from the net, perhaps on the Internets World Wide Web. No paper is used and disc space is cheap, so internet publishing costs very little. Articles don' t have to be cut (though there is of course a limit to the amount people are willing to read on line). Internet publishing is fast, and readers can access material as soon as it becomes available: within minutes, instead of the next day, next week or nest month. Internet publishing goes beyond geographical boundaries: the humblest local pa- per can be read everywhere form. New York to London to Delhi to Tokyo, Delivery costs are low because there are no newsagents to pay, and no postal charges: readers pick up the bills for their on-line sessions, also, computer- based publications are simple to store (on disc) and every word can be searched electronically.
At the moment, newspapers and magazines, TV and radio stations, news agencies and book publishers are making content freely available on the Web because they are competing for "mind share". Perhaps they want to find out if they can attract and hold an audience on line, or perhaps they re afraid of missing out because “everyone else is doing it.” But don't count on things staying that way. Publishers are not in business to lose money.
What does the author probably foresee?
A. Readers will have more accesses.
Books and newspapers will be kept as computer files.
C. It will not make any sense to keep the printed versions.
D. Electronic publications will replace printed ones.
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As we are on the point of some important business ______ with them, we should like to know
A. transmitting
B. transferring
C. transacting
D. transporting
In a purely biological sense, fear begins with the body's system for reacting to things that can harm us-- the so-called fight-or-flight response. "An animal that can't detect danger can't stay alive. "says Joseph LeDoux. Like animals, humans evolved with an elaborate mechanism for processing information about potential threats. At its core is a cluster of neurons (神经元)deep in the brain known as the amygdala(扁桃棱).
LeDoux studies the way animals and humans respond to threats to understand how we form. memories of significant events in our lives. The amygdala receives input from many parts of the brain, including regions responsible for retrieving memories. Using this information, the amygdala appraises a situation I think this charging dog wants to bite me--and triggers a response by radiating nerve signals throughout the body. These signals produce the familiar signs of distress: trembling, perspiration and fast--moving feet, just to name three.
This fear mechanism is critical to the survival of all animals, but no one can say for sure whether beasts other than humans know they're afraid. That is all LeDoux says," if you put that system into a brain that has consciousness, then you get the feeling of fear."
Humans, says Edward M. Hallowell, have the ability to call up images of bad things that happened in the past and to anticipate future events. Combine these higher thought processes with our hardwired danger-detection systems, and you get a near-universal human phenomenon: worry. That's not necessarily a bad thing, says Hallowell. "When used properly, worry is an incredible device. "he says. After all, a little healthy worrying is okay if it leads to constructive action--like having a doctor look at that weird spot on your back.
Hallowell insists, though, that there's a right way to worry. "Never do it alone, get the facts and then make a plan." he says. Most of us have survived a recession, so we're familiar with the belt-tightening strategies needed to survive a slump.
Unfortunately, few of us have much experience dealing with the threat of terrorism, so it's been difficult to get facts about how we should respond. That's why Hallowell believes it was okay for people to indulge some extreme worries last fall by asking doctors for Cipro(抗炭疽茵的药物)and buying gas masks.
The "so-called fight-or-flight response" (Line 2,Para. 1) refers to ______
A. the biological process in which human beings' sense of self-defense evolves
B. the instinctive fear human beings feel when faced with potential danger
C. the act of evaluating a dangerous situation and making a quick decision
D. the elaborate mechanism in the human brain for retrieving information
Part A
Directions: Read the following four texts. Answer the questions below each text by choosing A, B, C or D . Mark your answers on ANSWER SHEET 1.
Humans are forever forgetting that they can't control nature. Exactly 20 years ago, a Time magazine cover story announced that “scientists are on the verge of being able to predict the time , place and even the size of earthquakes.” The people of quake-ravaged Kobe (神户)learned last week how wrong that assertion was.
None of the methods conceived two decades ago has yet to discover a uniform. warning signal that preceded all quakes, let alone any sign that would tell whether the coming temblor (震动) is mild or a killer. Earthquake formation can be triggered by many factors, says Hiroo Kanamori, formation can be triggered by many factors, says Hiroo Kanamori, a seismologist (地震学家)at the California Institute of Technology, So, finding one all - purpose warning sign is impossible. One reason: Quakes start deep in the earth, so scientists can't study them directly . If a quake precursor were found, it would still be impossible to warn humans in advance of all dangerous quakes, Places like Japan and California are riddled with hundreds, if not thousands, of minor faults. Prediction would be less important if scientists could easily build structures to withstand tremors, While seismic engineering has improved dramatically in the past 10 to 15 years, every new quake reveals unexpected weaknesses in “quake – resistant” structures, says Terry Tullis, a geophysicist at Brown University. In Kobe, for example, a highway that opened only last year was damaged. In the Northridge earthquake, on the other hand, well-built structures generally did not collapse.
A recent report in science adds yet more anxiety about life on the faulty lines. Researchers ran computer simulations to see how quake-resistant buildings would fare in a moderate- size temblor, taking into account that much of a quakes energy travels in a large “pulse” of focused shaking. The results: Both steel-frame. buildings and buildings that sit on insulating rubber pads suffered severe damage.
More research will help experts design stronger structures and possibly find quake precursors. But it is still a certainty that the next earthquakes will prove once again that every fault cannot be monitored and every highway cannot be completely quake - proofed.
From what the author said in Para. 1, it can be inferred that.
A. scientists can never be able to predict the coming of earthquakes.
B. the existing power on predicting earthquakes is somewhat exaggerated.
C. quite a lot of scientific assertions are groundless.
D. earthquake predictions are beyond the reach of scientists.
The funding councils' Research Assessment Exercise (RAE) judges the quality of research carried out in individual university departments, and rates it on a scale of l to 5. In the last assessment, in 1992, departments ranked as low as 2 received funding. The group says this should not happen in this years exercise. Funding councils have not yet announced how they will distribute money from now on.
In a report called Research capability of the University System launched this week the group claims that funds are needed to pay for the “professional development” of university teachers who are not active in research, to help them keep up with their subject and improve the courses they teach.
It recommends that about 50 million, including money which is currently used to fund research in departments ranked at level 2, should be used to pay for this. It advises that the money should go only to those departments that are not competing for research money through the RAE.
The group believes that some universities have been expanding their research departments in order to attract research money. Some universities, it claims, are better suited to teaching than research, and should be encouraged to develop their expertise as educators.
“There's no use pretending that 104 universities could have the same job in life,” says David Harrison, master of Selwyn College, Cambridge, who chaired the group . A university could have some departments that are strong on research and others that are known for their top -grade teaching, he says.
But some people have some doubts about the group's recommendations. “It seems to be about developing further the distinction between research and non - research universities.” says Paul Cottrell of the Association of University Teachers, "If professional development money is a good idea, then it's a good idea for all university teachers."
The National Academic Policy Advisory Group says that money should be given to.
A. all the teachers
B. the best researchers.
C. the best teachers.
D. the needy universities .