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3327084 Ano: 2024
Disciplina: Inglês (Língua Inglesa)
Banca: FGV
Orgão: EPE
Provas:

Read Text I and answer the five questions that follow it:

Text I

Energy Transition in a Transnational World

Within the sphere of environmental law, the climate crisis is increasingly understood to be an intersectional challenge that implicates and exacerbates existing systemic challenges and prevailing pathways of inequality. From this vantage point climate change also creates opportunities for rethinking the role of law in limiting the destructive impacts of climate change and moving towards a more sustainable and equitable world in the process. This view is advanced by the climate justice movement, which is swelling in influence worldwide. Drawing from the environmental justice movement, the climate justice movement exposes not only how social and economic inequality has led to and perpetuates patterns of climate change, but also how climate change deepens inequality by disproportionately affecting the most vulnerable members of society. Climate justice seeks greater emphasis on this issue and advocates on the part of those most affected by climate change. The movement envisions a world which simultaneously curtails the negative effects of climate change and reshapes existing social, political, and economic relationships along the way.

Amidst the overlapping crises of modern times, the modern climate justice movement is reviving dialogue at the intersection of feminism, environmentalism, social and economic justice, and other progressive law reform movements, as well as creating the space and momentum for intersectional ideas to flourish. For lawyers and legal scholars, the opportunity is to see climate change and environmental degradation within its broader social context and to seize upon the rule of law as a powerful tool for change.

Nowhere are these intersecting challenges as acute as in the context of energy. One of the principal aims of the climate justice movement is to achieve a just and equitable transition from an extractive economy to a regenerative economy. This requires transitioning from fossil fuel-dependent to low and zero-carbon economies. However, the pathways for overhauling energy systems worldwide remain indeterminate. Energy systems are evolving in response to a combination of law and policy changes, developments in energy technologies, and market forces. Moreover, given both the entrenched nature of fossil fuel economies and the varied social, political, economic, and environmental factors that shape energy transition, pathways to decarbonization are bound to be beset with complex trade-offs, such as those between energy security and environmental objectives, or between energy choice and economies of scale. The precise contours of these systemic changes vary from country to country, and remain under-explored both within their national contexts and from a broader transnational perspective. This knowledge gap is critical. Understanding how, why, and to what end states are restructuring their energy economies is essential for transitioning to more environmentally sustainable and just societies worldwide. In short, this is an area in need of experimentation and iterative learning. It is a subject ripe for greater scholarly focus, particularly at the transnational level, where improved learning and sharing is indispensable for achieving the global-level shifts needed to address climate change.

Adapted from: Etty, Thijs et al. “Energy Transition in a Transnational World.” Transnational Environmental Law 10.2 (2021): 197–204. Available at https://www.cambridge.org/core/journals/transnational-environmental-law/article/energy-transition-in-a-transnational-world/9F9D4229588B39C0E5916DFBE82EA046

Analyse the statements below based on the text.

I. Climate justice supports the view that populations in disadvantage are impervious to the effects of climate change.

II. Efforts to link up with different movements are being expended by modern climate justice.

III. A keen understanding of how to revamp energy systems on a global scale has been achieved.

Choose the correct answer:

 

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Questão presente nas seguintes provas

Read Text I and answer the eight questions that follow it:

Text I

Shock of the old: Believe it or not, battery-powered vehicles

have been around since Victorian times.

The history of the electric car is surprisingly enraging. If you imagine early electric vehicles at all (full disclosure: I didn’t until recently), it will probably be as the quixotic and possibly dangerous dream of a few eccentrics, maybe in the 1920s or 1930s, when domestic electrification became widespread. It’s easy to imagine some stiff-collared proto-Musk getting bored of hunting and affairs, eyeing his newly installed electric lights speculatively, then wreaking untold havoc and mass electrocutions. The reality is entirely different.

By 1900, a third of all cars on the road in the US were electric; we’re looking at the history of a cruelly missed opportunity, and it started astonishingly early. The Scottish engineer Robert Anderson had a go at an electric car of sorts way back in the 1830s, though his invention was somewhat stymied by the fact rechargeable batteries were not invented until 1859, making his crude carriage something of a one-trick pony (and far less useful than an actual pony).

It’s debatable whether or not Scotland was ready for this brave new world anyway: in 1842, Robert Davidson (another Scot, who had, a few years earlier, also tried his hand at an electric vehicle) saw his electric locomotive Galvani “broken by some malicious hands almost beyond repair” in Perth. The contemporary consensus was that it was attacked by railway workers fearful for their jobs.

Despite this unpromising start, electric vehicles had entered widespread commercial circulation by the start of the 20th century, particularly in the US. Electric cabs crisscrossed Manhattan, 1897’s bestselling US car was electric and, when he was shot in 1901, President McKinley was taken to hospital in an electric ambulance. London had Walter Bersey’s electric taxis, and Berlin’s fire engines went electric in 1908; the future looked bright, clean and silent.

By the 1930s, however, the tide had definitively turned against electric, cursed by range limitations and impractical charging times while petrol gained the upper hand thanks partly – and ironically – to the electric starter motor. The Horseless Age magazine, which vehemently backed the petrol non-horse, would have been delighted. There was a brief resurgence of interest in the late 1960s, when the US Congress passed a bill promoting electrical vehicle development, but nothing much actually happened until the Nissan Leaf sparked interest in 2009. Electric still isn’t quite there yet, battling infrastructure and battery problems that might have been familiar to Anderson and friends.

Adapted from The Guardian, Tuesday 24 October 2023, p. 6 https://www.theguardian.com/lifeandstyle/series/shock-of-the-old/2023/oct/24/all

In “which vehemently backed” (5th paragraph) the verb is similar in meaning to:

 

Provas

Questão presente nas seguintes provas

Read Text I and answer the eight questions that follow it:

Text I

Shock of the old: Believe it or not, battery-powered vehicles

have been around since Victorian times.

The history of the electric car is surprisingly enraging. If you imagine early electric vehicles at all (full disclosure: I didn’t until recently), it will probably be as the quixotic and possibly dangerous dream of a few eccentrics, maybe in the 1920s or 1930s, when domestic electrification became widespread. It’s easy to imagine some stiff-collared proto-Musk getting bored of hunting and affairs, eyeing his newly installed electric lights speculatively, then wreaking untold havoc and mass electrocutions. The reality is entirely different.

By 1900, a third of all cars on the road in the US were electric; we’re looking at the history of a cruelly missed opportunity, and it started astonishingly early. The Scottish engineer Robert Anderson had a go at an electric car of sorts way back in the 1830s, though his invention was somewhat stymied by the fact rechargeable batteries were not invented until 1859, making his crude carriage something of a one-trick pony (and far less useful than an actual pony).

It’s debatable whether or not Scotland was ready for this brave new world anyway: in 1842, Robert Davidson (another Scot, who had, a few years earlier, also tried his hand at an electric vehicle) saw his electric locomotive Galvani “broken by some malicious hands almost beyond repair” in Perth. The contemporary consensus was that it was attacked by railway workers fearful for their jobs.

Despite this unpromising start, electric vehicles had entered widespread commercial circulation by the start of the 20th century, particularly in the US. Electric cabs crisscrossed Manhattan, 1897’s bestselling US car was electric and, when he was shot in 1901, President McKinley was taken to hospital in an electric ambulance. London had Walter Bersey’s electric taxis, and Berlin’s fire engines went electric in 1908; the future looked bright, clean and silent.

By the 1930s, however, the tide had definitively turned against electric, cursed by range limitations and impractical charging times while petrol gained the upper hand thanks partly – and ironically – to the electric starter motor. The Horseless Age magazine, which vehemently backed the petrol non-horse, would have been delighted. There was a brief resurgence of interest in the late 1960s, when the US Congress passed a bill promoting electrical vehicle development, but nothing much actually happened until the Nissan Leaf sparked interest in 2009. Electric still isn’t quite there yet, battling infrastructure and battery problems that might have been familiar to Anderson and friends.

Adapted from The Guardian, Tuesday 24 October 2023, p. 6 https://www.theguardian.com/lifeandstyle/series/shock-of-the-old/2023/oct/24/all

The idiom in “the tide had definitively turned” (5th paragraph) implies that the course of events had:

 

Provas

Questão presente nas seguintes provas

Read Text I and answer the eight questions that follow it:

Text I

Shock of the old: Believe it or not, battery-powered vehicles

have been around since Victorian times.

The history of the electric car is surprisingly enraging. If you imagine early electric vehicles at all (full disclosure: I didn’t until recently), it will probably be as the quixotic and possibly dangerous dream of a few eccentrics, maybe in the 1920s or 1930s, when domestic electrification became widespread. It’s easy to imagine some stiff-collared proto-Musk getting bored of hunting and affairs, eyeing his newly installed electric lights speculatively, then wreaking untold havoc and mass electrocutions. The reality is entirely different.

By 1900, a third of all cars on the road in the US were electric; we’re looking at the history of a cruelly missed opportunity, and it started astonishingly early. The Scottish engineer Robert Anderson had a go at an electric car of sorts way back in the 1830s, though his invention was somewhat stymied by the fact rechargeable batteries were not invented until 1859, making his crude carriage something of a one-trick pony (and far less useful than an actual pony).

It’s debatable whether or not Scotland was ready for this brave new world anyway: in 1842, Robert Davidson (another Scot, who had, a few years earlier, also tried his hand at an electric vehicle) saw his electric locomotive Galvani “broken by some malicious hands almost beyond repair” in Perth. The contemporary consensus was that it was attacked by railway workers fearful for their jobs.

Despite this unpromising start, electric vehicles had entered widespread commercial circulation by the start of the 20th century, particularly in the US. Electric cabs crisscrossed Manhattan, 1897’s bestselling US car was electric and, when he was shot in 1901, President McKinley was taken to hospital in an electric ambulance. London had Walter Bersey’s electric taxis, and Berlin’s fire engines went electric in 1908; the future looked bright, clean and silent.

By the 1930s, however, the tide had definitively turned against electric, cursed by range limitations and impractical charging times while petrol gained the upper hand thanks partly – and ironically – to the electric starter motor. The Horseless Age magazine, which vehemently backed the petrol non-horse, would have been delighted. There was a brief resurgence of interest in the late 1960s, when the US Congress passed a bill promoting electrical vehicle development, but nothing much actually happened until the Nissan Leaf sparked interest in 2009. Electric still isn’t quite there yet, battling infrastructure and battery problems that might have been familiar to Anderson and friends.

Adapted from The Guardian, Tuesday 24 October 2023, p. 6 https://www.theguardian.com/lifeandstyle/series/shock-of-the-old/2023/oct/24/all

In “Despite this unpromising start” (4th paragraph), the first word can be replaced by:

 

Provas

Questão presente nas seguintes provas

Read Text I and answer the eight questions that follow it:

Text I

Shock of the old: Believe it or not, battery-powered vehicles

have been around since Victorian times.

The history of the electric car is surprisingly enraging. If you imagine early electric vehicles at all (full disclosure: I didn’t until recently), it will probably be as the quixotic and possibly dangerous dream of a few eccentrics, maybe in the 1920s or 1930s, when domestic electrification became widespread. It’s easy to imagine some stiff-collared proto-Musk getting bored of hunting and affairs, eyeing his newly installed electric lights speculatively, then wreaking untold havoc and mass electrocutions. The reality is entirely different.

By 1900, a third of all cars on the road in the US were electric; we’re looking at the history of a cruelly missed opportunity, and it started astonishingly early. The Scottish engineer Robert Anderson had a go at an electric car of sorts way back in the 1830s, though his invention was somewhat stymied by the fact rechargeable batteries were not invented until 1859, making his crude carriage something of a one-trick pony (and far less useful than an actual pony).

It’s debatable whether or not Scotland was ready for this brave new world anyway: in 1842, Robert Davidson (another Scot, who had, a few years earlier, also tried his hand at an electric vehicle) saw his electric locomotive Galvani “broken by some malicious hands almost beyond repair” in Perth. The contemporary consensus was that it was attacked by railway workers fearful for their jobs.

Despite this unpromising start, electric vehicles had entered widespread commercial circulation by the start of the 20th century, particularly in the US. Electric cabs crisscrossed Manhattan, 1897’s bestselling US car was electric and, when he was shot in 1901, President McKinley was taken to hospital in an electric ambulance. London had Walter Bersey’s electric taxis, and Berlin’s fire engines went electric in 1908; the future looked bright, clean and silent.

By the 1930s, however, the tide had definitively turned against electric, cursed by range limitations and impractical charging times while petrol gained the upper hand thanks partly – and ironically – to the electric starter motor. The Horseless Age magazine, which vehemently backed the petrol non-horse, would have been delighted. There was a brief resurgence of interest in the late 1960s, when the US Congress passed a bill promoting electrical vehicle development, but nothing much actually happened until the Nissan Leaf sparked interest in 2009. Electric still isn’t quite there yet, battling infrastructure and battery problems that might have been familiar to Anderson and friends.

Adapted from The Guardian, Tuesday 24 October 2023, p. 6 https://www.theguardian.com/lifeandstyle/series/shock-of-the-old/2023/oct/24/all

The phrase “wreaking […] havoc” (1st paragraph) is similar in meaning to:

 

Provas

Questão presente nas seguintes provas

Read Text I and answer the eight questions that follow it:

Text I

Shock of the old: Believe it or not, battery-powered vehicles

have been around since Victorian times.

The history of the electric car is surprisingly enraging. If you imagine early electric vehicles at all (full disclosure: I didn’t until recently), it will probably be as the quixotic and possibly dangerous dream of a few eccentrics, maybe in the 1920s or 1930s, when domestic electrification became widespread. It’s easy to imagine some stiff-collared proto-Musk getting bored of hunting and affairs, eyeing his newly installed electric lights speculatively, then wreaking untold havoc and mass electrocutions. The reality is entirely different.

By 1900, a third of all cars on the road in the US were electric; we’re looking at the history of a cruelly missed opportunity, and it started astonishingly early. The Scottish engineer Robert Anderson had a go at an electric car of sorts way back in the 1830s, though his invention was somewhat stymied by the fact rechargeable batteries were not invented until 1859, making his crude carriage something of a one-trick pony (and far less useful than an actual pony).

It’s debatable whether or not Scotland was ready for this brave new world anyway: in 1842, Robert Davidson (another Scot, who had, a few years earlier, also tried his hand at an electric vehicle) saw his electric locomotive Galvani “broken by some malicious hands almost beyond repair” in Perth. The contemporary consensus was that it was attacked by railway workers fearful for their jobs.

Despite this unpromising start, electric vehicles had entered widespread commercial circulation by the start of the 20th century, particularly in the US. Electric cabs crisscrossed Manhattan, 1897’s bestselling US car was electric and, when he was shot in 1901, President McKinley was taken to hospital in an electric ambulance. London had Walter Bersey’s electric taxis, and Berlin’s fire engines went electric in 1908; the future looked bright, clean and silent.

By the 1930s, however, the tide had definitively turned against electric, cursed by range limitations and impractical charging times while petrol gained the upper hand thanks partly – and ironically – to the electric starter motor. The Horseless Age magazine, which vehemently backed the petrol non-horse, would have been delighted. There was a brief resurgence of interest in the late 1960s, when the US Congress passed a bill promoting electrical vehicle development, but nothing much actually happened until the Nissan Leaf sparked interest in 2009. Electric still isn’t quite there yet, battling infrastructure and battery problems that might have been familiar to Anderson and friends.

Adapted from The Guardian, Tuesday 24 October 2023, p. 6 https://www.theguardian.com/lifeandstyle/series/shock-of-the-old/2023/oct/24/all

The last sentence indicates that some hurdles remain to be:

 

Provas

Questão presente nas seguintes provas

Read Text I and answer the eight questions that follow it:

Text I

Shock of the old: Believe it or not, battery-powered vehicles

have been around since Victorian times.

The history of the electric car is surprisingly enraging. If you imagine early electric vehicles at all (full disclosure: I didn’t until recently), it will probably be as the quixotic and possibly dangerous dream of a few eccentrics, maybe in the 1920s or 1930s, when domestic electrification became widespread. It’s easy to imagine some stiff-collared proto-Musk getting bored of hunting and affairs, eyeing his newly installed electric lights speculatively, then wreaking untold havoc and mass electrocutions. The reality is entirely different.

By 1900, a third of all cars on the road in the US were electric; we’re looking at the history of a cruelly missed opportunity, and it started astonishingly early. The Scottish engineer Robert Anderson had a go at an electric car of sorts way back in the 1830s, though his invention was somewhat stymied by the fact rechargeable batteries were not invented until 1859, making his crude carriage something of a one-trick pony (and far less useful than an actual pony).

It’s debatable whether or not Scotland was ready for this brave new world anyway: in 1842, Robert Davidson (another Scot, who had, a few years earlier, also tried his hand at an electric vehicle) saw his electric locomotive Galvani “broken by some malicious hands almost beyond repair” in Perth. The contemporary consensus was that it was attacked by railway workers fearful for their jobs.

Despite this unpromising start, electric vehicles had entered widespread commercial circulation by the start of the 20th century, particularly in the US. Electric cabs crisscrossed Manhattan, 1897’s bestselling US car was electric and, when he was shot in 1901, President McKinley was taken to hospital in an electric ambulance. London had Walter Bersey’s electric taxis, and Berlin’s fire engines went electric in 1908; the future looked bright, clean and silent.

By the 1930s, however, the tide had definitively turned against electric, cursed by range limitations and impractical charging times while petrol gained the upper hand thanks partly – and ironically – to the electric starter motor. The Horseless Age magazine, which vehemently backed the petrol non-horse, would have been delighted. There was a brief resurgence of interest in the late 1960s, when the US Congress passed a bill promoting electrical vehicle development, but nothing much actually happened until the Nissan Leaf sparked interest in 2009. Electric still isn’t quite there yet, battling infrastructure and battery problems that might have been familiar to Anderson and friends.

Adapted from The Guardian, Tuesday 24 October 2023, p. 6 https://www.theguardian.com/lifeandstyle/series/shock-of-the-old/2023/oct/24/all

The author’s account discloses an evolution that can be understood as being:

 

Provas

Questão presente nas seguintes provas

Read Text I and answer the eight questions that follow it:

Text I

Shock of the old: Believe it or not, battery-powered vehicles

have been around since Victorian times.

The history of the electric car is surprisingly enraging. If you imagine early electric vehicles at all (full disclosure: I didn’t until recently), it will probably be as the quixotic and possibly dangerous dream of a few eccentrics, maybe in the 1920s or 1930s, when domestic electrification became widespread. It’s easy to imagine some stiff-collared proto-Musk getting bored of hunting and affairs, eyeing his newly installed electric lights speculatively, then wreaking untold havoc and mass electrocutions. The reality is entirely different.

By 1900, a third of all cars on the road in the US were electric; we’re looking at the history of a cruelly missed opportunity, and it started astonishingly early. The Scottish engineer Robert Anderson had a go at an electric car of sorts way back in the 1830s, though his invention was somewhat stymied by the fact rechargeable batteries were not invented until 1859, making his crude carriage something of a one-trick pony (and far less useful than an actual pony).

It’s debatable whether or not Scotland was ready for this brave new world anyway: in 1842, Robert Davidson (another Scot, who had, a few years earlier, also tried his hand at an electric vehicle) saw his electric locomotive Galvani “broken by some malicious hands almost beyond repair” in Perth. The contemporary consensus was that it was attacked by railway workers fearful for their jobs.

Despite this unpromising start, electric vehicles had entered widespread commercial circulation by the start of the 20th century, particularly in the US. Electric cabs crisscrossed Manhattan, 1897’s bestselling US car was electric and, when he was shot in 1901, President McKinley was taken to hospital in an electric ambulance. London had Walter Bersey’s electric taxis, and Berlin’s fire engines went electric in 1908; the future looked bright, clean and silent.

By the 1930s, however, the tide had definitively turned against electric, cursed by range limitations and impractical charging times while petrol gained the upper hand thanks partly – and ironically – to the electric starter motor. The Horseless Age magazine, which vehemently backed the petrol non-horse, would have been delighted. There was a brief resurgence of interest in the late 1960s, when the US Congress passed a bill promoting electrical vehicle development, but nothing much actually happened until the Nissan Leaf sparked interest in 2009. Electric still isn’t quite there yet, battling infrastructure and battery problems that might have been familiar to Anderson and friends.

Adapted from The Guardian, Tuesday 24 October 2023, p. 6 https://www.theguardian.com/lifeandstyle/series/shock-of-the-old/2023/oct/24/all

At the dawn of the 20th century in the United States of America, the use of electricity-powered vehicles seemed to be:

 

Provas

Questão presente nas seguintes provas
3326627 Ano: 2024
Disciplina: Inglês (Língua Inglesa)
Banca: FEPESE
Orgão: Pref. Caçador-SC
Predicting the unpredictable
Some years ago, a devastating earthquake struck the Italian town of L’Aquila. More than 300 people lost their lives, over 1,500 people were injured, and many buildings were destroyed. Two years later, seven earthquake experts were involved in a court case: Did they adequately warn the public after the initial tremors began? At the heart of the debate is whether they could have predicted a disaster like this.
Although a lot of scientists are working to improve our ability to predict natural disasters, so far no one has come up with a reliable method to forecast earthquakes or volcanic eruptions, days or weeks beforehand. Most of the research focuses on the areas most likely to experience seismic activity – but even our knowledge about where these areas are, is very limited. One reason for this is that human beings have only been around for a very small part of the Earth’s history. In geological terms, we all arrived on the scene very recently. Records from the past 2,000 years are incomplete, and the biggest earthquakes nearly always happen in areas where there have been no earthquakes in recorded history.
So, is there any hope for improving our ability to predict disasters? A solution may come from an unexpected source. Four years ago, a team of US physicists at Rutgers University in New Jersey were studying why pharmaceutical powders stick together. They observed that the powder stuck together when placed in a spinning cylinder, but then developed cracks and collapsed. Just before the cracks developed, an electric signal, like a small bolt of lightning, was created. The scientists repeated the experiment with a wide range of different materials, and they got similar results every time.
This phenomenon might also exist in nature. Some scientists believe that rocks may become electrically charged under unusual pressure, such as before an earthquake. This electric charge then causes changes in the surrounding air or water, which animals may be able to sense before humans do. For example, while biologists were studying a colony of frogs in a pond near L’Aquila, they noticed that nearly all the animals left the water days before the earthquake. A similar thing happened in China, when snakes were hibernating for the winter in caves, but escaped just before a large earthquake. The same kind of electric charge, like the small bolt of lightning felt in the experiment at Rutgers, may have been responsible.
At the moment, there is no reliable way ............ using such findings to predict earthquakes, and further studies may be necessary to give us a better understanding of the interactions involved, but one day, the technology may be used ............ predict future catastrophes. For example, two science institutions in Russia and Britain are already developing a new micro-satellite, which could detect these electric signals and help rescue people ................ natural disasters in time. Scientists are planning to launch the first of these satellites ............... space. Will these satellites be the solution? Only time will tell. For the time being, the best defense is to be prepared.
Active Learning Strategy is a teaching technique that increases student engagement in daily lessons. This technique can also help teachers to become more actively engaged in how they teach the curriculum and how they develop each student’s learning potential.
Choose the alternative that presents an active learning strategy.
 

Provas

Questão presente nas seguintes provas
3326626 Ano: 2024
Disciplina: Inglês (Língua Inglesa)
Banca: FEPESE
Orgão: Pref. Caçador-SC
Predicting the unpredictable
Some years ago, a devastating earthquake struck the Italian town of L’Aquila. More than 300 people lost their lives, over 1,500 people were injured, and many buildings were destroyed. Two years later, seven earthquake experts were involved in a court case: Did they adequately warn the public after the initial tremors began? At the heart of the debate is whether they could have predicted a disaster like this.
Although a lot of scientists are working to improve our ability to predict natural disasters, so far no one has come up with a reliable method to forecast earthquakes or volcanic eruptions, days or weeks beforehand. Most of the research focuses on the areas most likely to experience seismic activity – but even our knowledge about where these areas are, is very limited. One reason for this is that human beings have only been around for a very small part of the Earth’s history. In geological terms, we all arrived on the scene very recently. Records from the past 2,000 years are incomplete, and the biggest earthquakes nearly always happen in areas where there have been no earthquakes in recorded history.
So, is there any hope for improving our ability to predict disasters? A solution may come from an unexpected source. Four years ago, a team of US physicists at Rutgers University in New Jersey were studying why pharmaceutical powders stick together. They observed that the powder stuck together when placed in a spinning cylinder, but then developed cracks and collapsed. Just before the cracks developed, an electric signal, like a small bolt of lightning, was created. The scientists repeated the experiment with a wide range of different materials, and they got similar results every time.
This phenomenon might also exist in nature. Some scientists believe that rocks may become electrically charged under unusual pressure, such as before an earthquake. This electric charge then causes changes in the surrounding air or water, which animals may be able to sense before humans do. For example, while biologists were studying a colony of frogs in a pond near L’Aquila, they noticed that nearly all the animals left the water days before the earthquake. A similar thing happened in China, when snakes were hibernating for the winter in caves, but escaped just before a large earthquake. The same kind of electric charge, like the small bolt of lightning felt in the experiment at Rutgers, may have been responsible.
At the moment, there is no reliable way ............ using such findings to predict earthquakes, and further studies may be necessary to give us a better understanding of the interactions involved, but one day, the technology may be used ............ predict future catastrophes. For example, two science institutions in Russia and Britain are already developing a new micro-satellite, which could detect these electric signals and help rescue people ................ natural disasters in time. Scientists are planning to launch the first of these satellites ............... space. Will these satellites be the solution? Only time will tell. For the time being, the best defense is to be prepared.
Analyze the sentences according to structure and grammar use.

1. The verbs been (2nd paragraph), lost (1st paragraph) has its infinitive form as “to be” and “loose”.
2. The words might and may in the 4th paragraph are called nonfinite verbs.
3. The negative form of the sentence This electric charge then causes changes in the surrounding air or water(…), is This electric charge then doesn’t cause changes in the surrounding air or water(…).
4. The words we, our, and us from the text (paragraphs 2, 3 and 5) are, respectively, personal pronoun, possessive adjective and objective pronoun.

Choose the alternative which contains the correct sentences.
 

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Questão presente nas seguintes provas