Questões de Vestibular de Inglês - Interpretação de texto | Reading comprehension
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( ) Standards of feminine physical beauty have changed markedly over time.
( ) Just one type of female beauty has remained unchanged at all times and places.
( ) Some feminine physical features have been praised as universally appealing in all cultures.
( ) In general, images of women have historically followed a pattern set down by men.
The correct sequence, from top to bottom, is
Illustration by David Simond
According to the cartoon,
The Boom Is Nigh
Why the coming recovery will hurt like hell.
Here is what you really need to know: a Sonic Boom is coming. It will be caused by globalization. And while globalization may be driving you crazy, it’s just getting started. Thirty years ago, Shenzhen, China, did not exist; today, it has nearly 9 million residents, roughly the same as New York City. In a single generation, it has grown from a village of tarpaper shacks into an important urban center. It has become the world’s fourth-busiest port, busier than Los Angeles and Long Beach combined. Never before has a great city been built so fast, nor a productive economy established from so little.
The international recession that began in 2008 has made the Sonic Boom quieter, but history shows that when a crisis ends, the larger trends in place before the crisis usually resume. Shenzhen represents the larger trend of growth, change, and transformation at unprecedented velocity. Thanks to vast increases in productivity, worldwide economic growth soon will pick up, creating rising prosperity and higher living standards for most people in most nations. The world will be far more interconnected, leading to better and more affordable products, as well as ever better communication among nations.
But there’s a big catch: just as favorable economic and social trends are likely to resume, many problems that have characterized recent decades are likely to get worse, too. Job instability, economic insecurity, a sense of turmoil, the fear that even when things seem good a hammer is about to fall—these are also part of the larger trend. As world economies become ever more linked by computers, job stress will become a 24/7 affair. Frequent shakeups in industries will cause increasing uncertainty. The horizon has never been brighter, but we may not feel particularly happy about it.
The Boom Is Nigh
Why the coming recovery will hurt like hell.
Here is what you really need to know: a Sonic Boom is coming. It will be caused by globalization. And while globalization may be driving you crazy, it’s just getting started. Thirty years ago, Shenzhen, China, did not exist; today, it has nearly 9 million residents, roughly the same as New York City. In a single generation, it has grown from a village of tarpaper shacks into an important urban center. It has become the world’s fourth-busiest port, busier than Los Angeles and Long Beach combined. Never before has a great city been built so fast, nor a productive economy established from so little.
The international recession that began in 2008 has made the Sonic Boom quieter, but history shows that when a crisis ends, the larger trends in place before the crisis usually resume. Shenzhen represents the larger trend of growth, change, and transformation at unprecedented velocity. Thanks to vast increases in productivity, worldwide economic growth soon will pick up, creating rising prosperity and higher living standards for most people in most nations. The world will be far more interconnected, leading to better and more affordable products, as well as ever better communication among nations.
But there’s a big catch: just as favorable economic and social trends are likely to resume, many problems that have characterized recent decades are likely to get worse, too. Job instability, economic insecurity, a sense of turmoil, the fear that even when things seem good a hammer is about to fall—these are also part of the larger trend. As world economies become ever more linked by computers, job stress will become a 24/7 affair. Frequent shakeups in industries will cause increasing uncertainty. The horizon has never been brighter, but we may not feel particularly happy about it.
Brazil’s presidential biopic
Lula, sanitised
SÃO PAULO
For all that, the film is very watchable. It opens in the poor north-east, where Lula was born into a landscape of bright red soil and cacti, and ends with his rise as a metalworkers’ union leader in the industrial belt of São Paulo in the 1970s. This is a candyfloss version of the story, however. Lula’s reverses are shown: the little finger lost to a lathe, the death of his first wife and child in childbirth. But he is too good to be true: a perfect student, perfect husband and political moderate who abhorred violence.
The book on which the film is based, by contrast, quotes Lula as approving of an incident in which a director of a factory that is on strike is thrown out of a window. In the film he runs from the factory appalled. That is a shame. A more nuanced telling would not detract from Lula’s remarkable life story and achievement.
The film is doing well at the box office. Its producers say it is running more strongly in the north-east than in the populous south-east, which means it mirrors Ms Rousseff’s fortunes in the polls. There are plans to show the film on mobile screens in places with no cinema. It may get an airing on television, though there is no such deal in place yet.
All this helps a process of mythmaking around Lula that is already well under way. Catching some of Lula’s stardust is Ms Rousseff’s best hope for capturing the presidency in October, and there are some signs that this is happening. The gap between her and José Serra, her main rival, halved between March and December last year and now stands at 14 points. Competing against a celluloid legend is not easy.
I. Not only Fábio Barreto but also Oliver Stone have turned living politicians into myths. II. Dilma Rousseff will surely benefit from the release of the movie. III. An incident that took place in a factory is depicted differently from the way it really happened. IV. The film is about to be available for cell phones next year. V. Until now producers have had no idea of how well the film is doing in the movie theaters.
Brazil’s presidential biopic
Lula, sanitised
SÃO PAULO
For all that, the film is very watchable. It opens in the poor north-east, where Lula was born into a landscape of bright red soil and cacti, and ends with his rise as a metalworkers’ union leader in the industrial belt of São Paulo in the 1970s. This is a candyfloss version of the story, however. Lula’s reverses are shown: the little finger lost to a lathe, the death of his first wife and child in childbirth. But he is too good to be true: a perfect student, perfect husband and political moderate who abhorred violence.
The book on which the film is based, by contrast, quotes Lula as approving of an incident in which a director of a factory that is on strike is thrown out of a window. In the film he runs from the factory appalled. That is a shame. A more nuanced telling would not detract from Lula’s remarkable life story and achievement.
The film is doing well at the box office. Its producers say it is running more strongly in the north-east than in the populous south-east, which means it mirrors Ms Rousseff’s fortunes in the polls. There are plans to show the film on mobile screens in places with no cinema. It may get an airing on television, though there is no such deal in place yet.
All this helps a process of mythmaking around Lula that is already well under way. Catching some of Lula’s stardust is Ms Rousseff’s best hope for capturing the presidency in October, and there are some signs that this is happening. The gap between her and José Serra, her main rival, halved between March and December last year and now stands at 14 points. Competing against a celluloid legend is not easy.
Get into a comfortable, relaxed position. / Shut your eyes and turn your attention inwards. / Think about that assertive experience (real or imagined, yours or someone else’s) and really get into it. / Re-live it as though you are there all over again. / See everything there is to see, / the face of the other person or people / and how they’re responding to you. / Hear the sound of your own voice as you speak. / Hear the sound of any other voices. / Feel really good about the situation. / Feel confident and assertive / and enjoy the feeling. / And when you’re deeply involved in those feelings, capture them for a few seconds with your word, image or gesture. / Stay in the experience a while longer but take away the word, image or gesture. / And now come slowly and gently back to the room.
Get into a comfortable, relaxed position. / Shut your eyes and turn your attention inwards. / Think about that assertive experience (real or imagined, yours or someone else’s) and really get into it. / Re-live it as though you are there all over again. / See everything there is to see, / the face of the other person or people / and how they’re responding to you. / Hear the sound of your own voice as you speak. / Hear the sound of any other voices. / Feel really good about the situation. / Feel confident and assertive / and enjoy the feeling. / And when you’re deeply involved in those feelings, capture them for a few seconds with your word, image or gesture. / Stay in the experience a while longer but take away the word, image or gesture. / And now come slowly and gently back to the room.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
Pseudoscientific claims that music helps plants grow have been made for decades, despite evidence that is shaky at best. Yet new research suggests some flora may be capable of sensing sounds, such as the gurgle of water through a pipe or the buzzing of insects.
In a recent study, Monica Gagliano, an evolutionary biologist at the University of Western Australia, and her colleagues placed pea seedlings in pots shaped like an upside-down Y. One arm of each pot was placed in either a tray of water or a coiled plastic tube through which water flowed; the other arm had dry soil. The roots grew toward the arm of the pipe with the fluid, regardless of whether it was easily accessible or hidden inside the tubing. “They just knew the water was there, even if the only thing to detect was the sound of it flowing inside the pipe,” Gagliano says. Yet when the seedlings were given a choice between the water tube and some moistened soil, their roots favored the latter. She hypothesizes that these plants use sound waves to detect water at a distance but follow moisture gradients to home in on their target when it is closer.
The research, reported earlier this year in Oecologia, is not the first to suggest flora can detect and interpret sounds. A 2014 study showed the rock cress Arabidopsis can distinguish between caterpillar chewing sounds and wind vibrations – the plant produced more chemical toxins after “hearing” a recording of feeding insects. “We tend to underestimate plants because their responses are usually less visible to us. But leaves turn out to be extremely sensitive vibration detectors,” says lead study author Heidi M. Appel, an environmental scientist now at the University of Toledo.
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There is nothing conventional about 17-year-old Michael Fuller’s relationship with music. As someone with high-functioning autism who sees the world through sound, creating melodies from the bustle of the high street or trains on the tracks feels more natural than any social interaction. This hardwired connection to sound has been with him for as long as he can remember.
By the age of 11, Michael could play Mozart by ear, having taught himself to play the piano through a mobile phone app. The app highlighted notes on a keyboard as classical music played. He describes his unusual musical talent as “downloading” music into his head. His mother, Nadine, remembers that as a child Michael would “suddenly pop up and say: ‘I’ve got a symphony’”. Michael took to the piano and found he could quickly perform complex pieces from memory.
“I liked what I was hearing, sought more music and began studying through Google and YouTube,” he remembers. “It was very organic. I would listen in great depth and the music would be implanted in my mind. I could then just play it on the piano – all without being taught.”
Growing up in a family that listened to reggae over classical music, Michael feels “very much aware” of how different his approach is to music – symbolised by the way he taught himself piano as a child. This, his mother says, came as a “surprise to the family and myself – I’d never listened to classical music in my life”.
It was not long after learning to play the piano that Michael started composing his own works. Describing this process as “making music with my mind”, Michael says composing classical symphonies “helps me to express myself through music – it makes me calm”. Michael wants to nurture his song writing to achieve his ambition of becoming a modern mainstream classical artist. He wants to control the creative process, unlike typical modern-day composers, who he says “write blobs on a page, hand it over to the musicians – then say bye-bye and stay in the background and get no recognition”. Instead, Michael is determined to take centre stage.
(Alex Taylor. www.bbc.com, 27.03.2018. Adaptado.)