Questões de Concurso Comentadas sobre interpretação de texto | reading comprehension em inglês

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Q2909265 Inglês

Text I

A Day in the Life of the Women of O&G

by Jaime Kammerzell

From Rigzone Contributor. Tuesday, February 14, 2012

Although far fewer women work in the oil and gas

(O&G) industry compared to men, many women find

rewarding careers in the industry. Five women were

asked the same questions regarding their career

5 choices in the oil and gas industry.

Question 1: Why did you choose the oil and gas

industry?

Woman 1: Cool technology, applying science and

money.

10Woman 2: It seemed interesting and the pay was

good.

Woman 3: They offered me a job! I couldn’t turn down

the great starting salary and a chance to live in New

Orleans.

15Woman 4: I did not really choose the oil and gas

industry as much as it chose me.

Woman 5: I chose the oil and gas industry because of

the challenging projects, and I want to be part of our

country’s energy solution.

20Question 2: How did you get your start in the oil

and gas industry?

Woman 1: I went to a university that all major oil

companies recruit. I received a summer internship with

Texaco before my last year of my Master’s degree.

25Woman 2: I was recruited at a Texas Tech Engineering

Job Fair.

Woman 3: At the time, campus recruiters came

to the geosciences department of my university

annually and they sponsored scholarships for

30graduate students to help complete their research.

Even though my Master’s thesis was more geared

toward environmental studies, as a recipient of one

of these scholarships, my graduate advisor strongly

encouraged me to participate when the time came for

35O&G Industry interviews.

Woman 4: I was working for a company in another

state where oil and gas was not its primary business.

When the company sold its division in the state

where I was working, they offered me a position at

40the company’s headquarters in Houston managing

the aftermarket sales for the company’s largest

region. Aftermarket sales supported the on-highway,

construction, industrial, agricultural and the oil and

gas markets. After one year, the company asked me

45to take the position of managing their marine and

offshore power products division. I held that position

for three years. I left that company to join a new startup

company where I hold the position of president.

Woman 5: My first job in the oil and gas industry was

50an internship with Mobil Oil Corp., in New Orleans.

I worked with a lot of smart, focused and talented

geoscientists and engineers.

Question 3: Describe your typical day.

Woman 1: Tough one to describe a typical day. I

55generally read email, go to a couple of meetings and

work with the field’s earth model or look at seismic.

Woman 2: I talk with clients, help prepare bids and

work on getting projects out the door. My days are

never the same, which is what I love about the job I

60have.

Woman 3: I usually work from 7:30 a.m. – 6:30 p.m.

(although the official day is shorter). We call the field

every morning for an update on operations, security,

construction, facilities and production engineering

65activities. I work with my team leads on short-term

and long-term projects to enhance production (a lot of

emails and Powerpoint). I usually have 2-3 meetings

per day to discuss/prioritize/review ongoing or

upcoming work (production optimization, simulation

70modeling, drilling plans, geologic interpretation,

workovers, etc.). Beyond our team, I also participate

in a number of broader business initiatives and

leadership teams.

Woman 4: A typical day is a hectic day for me. My

75day usually starts well before 8 a.m. with phone

calls and emails with our facility in Norway, as well

as other business relationships abroad. At the office,

I am involved in the daily business operations and

also stay closely involved in the projects and the

80sales efforts. On any given day I am working on

budgets and finance, attending project meetings,

attending engineering meetings, reviewing drawings

and technical specifications, meeting with clients

and prospective clients, reviewing sales proposals,

85evaluating new business opportunities and making a

lot of decisions.

Woman 5: On most days I work on my computer

to complete my projects. I interpret logs, create

maps, research local and regional geology or write

90documents. I go to project meetings almost every day.

I typically work only during business hours, but there

are times when I get calls at night or on weekends

from a rig or other geologists for assistance with a

technical problem.

Adapted from URL: <http://www.rigzone.com/news/article

.asp?a_id=11508>. Retrieved on February 14, 2012.

According to Text I, when asked about their choice of the oil and gas industry,

Alternativas
Q2908084 Inglês
Stanford physicists make new form of matter
The laser-cooled quantum gas opens exciting new realms of unconventional superconductivity
By Max McClure Stanford University News

Within the exotic world of macroscopic quantum effects, where fluids flow uphill, wires conduct without electrical resistance and magnets levitate, there is an even stranger family of “unconventional” phenomena: strongly interacting fermions, a class of particles that are often very difficult to understand on the quantum level. These materials often defy explanation by current theoretical physics, but hold enormous promise for the development of futuristic technologies as room-temperature superconductors, ultrasensitive microscopes and quantum computation. Last week the scientific world was appalled when a Stanford team made the announcement in Physical Review Letters that they had created the world’s first dipolar quantum fermionic gas– “an entirely new form of quantum matter,” as Stanford applied physics Professor and lead author Benjamin Lev puts it. Lev affirmed that this development represents a major step toward understanding the behavior of these systems of particles. Until now, research efforts had focused on cooling bosons – fundamentally different from fermions, and much easier to work with. But now the Stanford team extended these techniques to gases made of the most magnetic atom: a fermionic isotope of dysprosium with magnetic energies 440 times larger than previously cooled gases. He explained that when the thermal energy of some substances drops below a certain critical point, it used to be impossible to consider its component particles separately since the material becomes strongly correlated and its quantum effects become difficult to understand and study. Nevertheless, making the material out of a gas of atoms allows it to become visible. These quantum gases, the coldest objects known to man, are where researchers can observe zero-viscosity fluids – superfluids – that are mathematical cousins of superconductors. Thus far, the result of the Lev lab’s high-tech efforts is a tiny ball of ultracold quantum dipolar fluid. But the researchers have reason to believe that the humble substance will exhibit the seemingly contradictory characteristics of both crystals and superfluids. This combination could lead to quantum liquid crystals. Or it could yield a supersolid – a hypothetical state of matter that would, in theory at least, be a solid with superfluid characteristics. The researchers have already begun developing a microscope to make use of the dipolar quantum fluid’s unique characteristics. It is the “cryogenic atom chip microscope”, a magnetic probe that should measure magnetic fields with unprecedented sensitivity and resolution. “This kind of probe may even allow for a more stable form of quantum computation that uses exotic quantum matter to process information, known as a topologically protected quantum computer”, said Lev. “So this new approach is really incredibly exciting.” 

Available at: <http://news.stanford.edu/news/2012/june/lev-new- -matter-060512.html>. Retrieved on: 5 June 2012. Adapted.

According to the text, the cryogenic atom chip microscope

Alternativas
Q2908083 Inglês
Stanford physicists make new form of matter
The laser-cooled quantum gas opens exciting new realms of unconventional superconductivity
By Max McClure Stanford University News

Within the exotic world of macroscopic quantum effects, where fluids flow uphill, wires conduct without electrical resistance and magnets levitate, there is an even stranger family of “unconventional” phenomena: strongly interacting fermions, a class of particles that are often very difficult to understand on the quantum level. These materials often defy explanation by current theoretical physics, but hold enormous promise for the development of futuristic technologies as room-temperature superconductors, ultrasensitive microscopes and quantum computation. Last week the scientific world was appalled when a Stanford team made the announcement in Physical Review Letters that they had created the world’s first dipolar quantum fermionic gas– “an entirely new form of quantum matter,” as Stanford applied physics Professor and lead author Benjamin Lev puts it. Lev affirmed that this development represents a major step toward understanding the behavior of these systems of particles. Until now, research efforts had focused on cooling bosons – fundamentally different from fermions, and much easier to work with. But now the Stanford team extended these techniques to gases made of the most magnetic atom: a fermionic isotope of dysprosium with magnetic energies 440 times larger than previously cooled gases. He explained that when the thermal energy of some substances drops below a certain critical point, it used to be impossible to consider its component particles separately since the material becomes strongly correlated and its quantum effects become difficult to understand and study. Nevertheless, making the material out of a gas of atoms allows it to become visible. These quantum gases, the coldest objects known to man, are where researchers can observe zero-viscosity fluids – superfluids – that are mathematical cousins of superconductors. Thus far, the result of the Lev lab’s high-tech efforts is a tiny ball of ultracold quantum dipolar fluid. But the researchers have reason to believe that the humble substance will exhibit the seemingly contradictory characteristics of both crystals and superfluids. This combination could lead to quantum liquid crystals. Or it could yield a supersolid – a hypothetical state of matter that would, in theory at least, be a solid with superfluid characteristics. The researchers have already begun developing a microscope to make use of the dipolar quantum fluid’s unique characteristics. It is the “cryogenic atom chip microscope”, a magnetic probe that should measure magnetic fields with unprecedented sensitivity and resolution. “This kind of probe may even allow for a more stable form of quantum computation that uses exotic quantum matter to process information, known as a topologically protected quantum computer”, said Lev. “So this new approach is really incredibly exciting.” 

Available at: <http://news.stanford.edu/news/2012/june/lev-new- -matter-060512.html>. Retrieved on: 5 June 2012. Adapted.

According to the text, this new material has the opposing qualities of being

Alternativas
Q2908082 Inglês
Stanford physicists make new form of matter
The laser-cooled quantum gas opens exciting new realms of unconventional superconductivity
By Max McClure Stanford University News

Within the exotic world of macroscopic quantum effects, where fluids flow uphill, wires conduct without electrical resistance and magnets levitate, there is an even stranger family of “unconventional” phenomena: strongly interacting fermions, a class of particles that are often very difficult to understand on the quantum level. These materials often defy explanation by current theoretical physics, but hold enormous promise for the development of futuristic technologies as room-temperature superconductors, ultrasensitive microscopes and quantum computation. Last week the scientific world was appalled when a Stanford team made the announcement in Physical Review Letters that they had created the world’s first dipolar quantum fermionic gas– “an entirely new form of quantum matter,” as Stanford applied physics Professor and lead author Benjamin Lev puts it. Lev affirmed that this development represents a major step toward understanding the behavior of these systems of particles. Until now, research efforts had focused on cooling bosons – fundamentally different from fermions, and much easier to work with. But now the Stanford team extended these techniques to gases made of the most magnetic atom: a fermionic isotope of dysprosium with magnetic energies 440 times larger than previously cooled gases. He explained that when the thermal energy of some substances drops below a certain critical point, it used to be impossible to consider its component particles separately since the material becomes strongly correlated and its quantum effects become difficult to understand and study. Nevertheless, making the material out of a gas of atoms allows it to become visible. These quantum gases, the coldest objects known to man, are where researchers can observe zero-viscosity fluids – superfluids – that are mathematical cousins of superconductors. Thus far, the result of the Lev lab’s high-tech efforts is a tiny ball of ultracold quantum dipolar fluid. But the researchers have reason to believe that the humble substance will exhibit the seemingly contradictory characteristics of both crystals and superfluids. This combination could lead to quantum liquid crystals. Or it could yield a supersolid – a hypothetical state of matter that would, in theory at least, be a solid with superfluid characteristics. The researchers have already begun developing a microscope to make use of the dipolar quantum fluid’s unique characteristics. It is the “cryogenic atom chip microscope”, a magnetic probe that should measure magnetic fields with unprecedented sensitivity and resolution. “This kind of probe may even allow for a more stable form of quantum computation that uses exotic quantum matter to process information, known as a topologically protected quantum computer”, said Lev. “So this new approach is really incredibly exciting.” 

Available at: <http://news.stanford.edu/news/2012/june/lev-new- -matter-060512.html>. Retrieved on: 5 June 2012. Adapted.

In the text, the word in bold-face type is similar to the one in italics in

Alternativas
Q2908081 Inglês
Stanford physicists make new form of matter
The laser-cooled quantum gas opens exciting new realms of unconventional superconductivity
By Max McClure Stanford University News

Within the exotic world of macroscopic quantum effects, where fluids flow uphill, wires conduct without electrical resistance and magnets levitate, there is an even stranger family of “unconventional” phenomena: strongly interacting fermions, a class of particles that are often very difficult to understand on the quantum level. These materials often defy explanation by current theoretical physics, but hold enormous promise for the development of futuristic technologies as room-temperature superconductors, ultrasensitive microscopes and quantum computation. Last week the scientific world was appalled when a Stanford team made the announcement in Physical Review Letters that they had created the world’s first dipolar quantum fermionic gas– “an entirely new form of quantum matter,” as Stanford applied physics Professor and lead author Benjamin Lev puts it. Lev affirmed that this development represents a major step toward understanding the behavior of these systems of particles. Until now, research efforts had focused on cooling bosons – fundamentally different from fermions, and much easier to work with. But now the Stanford team extended these techniques to gases made of the most magnetic atom: a fermionic isotope of dysprosium with magnetic energies 440 times larger than previously cooled gases. He explained that when the thermal energy of some substances drops below a certain critical point, it used to be impossible to consider its component particles separately since the material becomes strongly correlated and its quantum effects become difficult to understand and study. Nevertheless, making the material out of a gas of atoms allows it to become visible. These quantum gases, the coldest objects known to man, are where researchers can observe zero-viscosity fluids – superfluids – that are mathematical cousins of superconductors. Thus far, the result of the Lev lab’s high-tech efforts is a tiny ball of ultracold quantum dipolar fluid. But the researchers have reason to believe that the humble substance will exhibit the seemingly contradictory characteristics of both crystals and superfluids. This combination could lead to quantum liquid crystals. Or it could yield a supersolid – a hypothetical state of matter that would, in theory at least, be a solid with superfluid characteristics. The researchers have already begun developing a microscope to make use of the dipolar quantum fluid’s unique characteristics. It is the “cryogenic atom chip microscope”, a magnetic probe that should measure magnetic fields with unprecedented sensitivity and resolution. “This kind of probe may even allow for a more stable form of quantum computation that uses exotic quantum matter to process information, known as a topologically protected quantum computer”, said Lev. “So this new approach is really incredibly exciting.” 

Available at: <http://news.stanford.edu/news/2012/june/lev-new- -matter-060512.html>. Retrieved on: 5 June 2012. Adapted.

In the second paragraph of the text, it is clear that

Alternativas
Q2908080 Inglês
Stanford physicists make new form of matter
The laser-cooled quantum gas opens exciting new realms of unconventional superconductivity
By Max McClure Stanford University News

Within the exotic world of macroscopic quantum effects, where fluids flow uphill, wires conduct without electrical resistance and magnets levitate, there is an even stranger family of “unconventional” phenomena: strongly interacting fermions, a class of particles that are often very difficult to understand on the quantum level. These materials often defy explanation by current theoretical physics, but hold enormous promise for the development of futuristic technologies as room-temperature superconductors, ultrasensitive microscopes and quantum computation. Last week the scientific world was appalled when a Stanford team made the announcement in Physical Review Letters that they had created the world’s first dipolar quantum fermionic gas– “an entirely new form of quantum matter,” as Stanford applied physics Professor and lead author Benjamin Lev puts it. Lev affirmed that this development represents a major step toward understanding the behavior of these systems of particles. Until now, research efforts had focused on cooling bosons – fundamentally different from fermions, and much easier to work with. But now the Stanford team extended these techniques to gases made of the most magnetic atom: a fermionic isotope of dysprosium with magnetic energies 440 times larger than previously cooled gases. He explained that when the thermal energy of some substances drops below a certain critical point, it used to be impossible to consider its component particles separately since the material becomes strongly correlated and its quantum effects become difficult to understand and study. Nevertheless, making the material out of a gas of atoms allows it to become visible. These quantum gases, the coldest objects known to man, are where researchers can observe zero-viscosity fluids – superfluids – that are mathematical cousins of superconductors. Thus far, the result of the Lev lab’s high-tech efforts is a tiny ball of ultracold quantum dipolar fluid. But the researchers have reason to believe that the humble substance will exhibit the seemingly contradictory characteristics of both crystals and superfluids. This combination could lead to quantum liquid crystals. Or it could yield a supersolid – a hypothetical state of matter that would, in theory at least, be a solid with superfluid characteristics. The researchers have already begun developing a microscope to make use of the dipolar quantum fluid’s unique characteristics. It is the “cryogenic atom chip microscope”, a magnetic probe that should measure magnetic fields with unprecedented sensitivity and resolution. “This kind of probe may even allow for a more stable form of quantum computation that uses exotic quantum matter to process information, known as a topologically protected quantum computer”, said Lev. “So this new approach is really incredibly exciting.” 

Available at: <http://news.stanford.edu/news/2012/june/lev-new- -matter-060512.html>. Retrieved on: 5 June 2012. Adapted.

According to the text, fermions

Alternativas
Q2895732 Inglês

Choose the best alternative, according to the following situation described: Situation: I bought six bottles of soda.

Alternativas
Q2895730 Inglês

The alternative that brings the sentences with the same meaning of “My cousin recovered from his health problems because he has completely changed his lifestyle” is

Alternativas
Q2895724 Inglês

Read the text Picasso and Monets Are Stolen in Dutch Heist and answer questions 25), 26), 27),and 28).

Picasso and Monets Are Stolen in Dutch Heist

AMSTERDAM (AP) — Thieves broke into a Rotterdam museum on Tuesday and walked off with works from the likes of Picasso, Monet, Gauguin and Matisse potentially worth hundreds of millions.

Police haven't said how they pulled off the early hours heist, but an expert who tracks stolen art said the robbers clearly knew what they were after.

"Those thieves got one hell of a haul," said Chris Marinello, who directs the Art Loss Register.

The heist at the Kunsthal museum is one of the largest in years in the Netherlands, and is a stunning blow for the private Triton Foundation collection, which was being exhibited publicly as a group for the first time.

"It's every museum director's worst nightmare," said Kunsthal director Emily Ansenk, who had been in Istanbul on business but returned immediately.

News of the theft "struck like a bomb," she said at a press conference in the museum's cafe.

She declined to reveal any details of how the thieves struck, or how the museum is protected, other than describing its security as "state of the art" and "functional."

Willem van Hassel, the museum's chairman, said its security systems are automated, and do not use guards on site.

Police arrived at the scene five minutes after an alarm was triggered, he said. He described the museum's insurance as adequate for the exhibition.

The collection was on display as part of celebrations surrounding the museum's 20th anniversary.

Police spokeswoman Willemieke Romijn said investigators were reviewing videotapes of the theft, which took place around 3 a.m. local time, and calling for any witnesses to come forward.

The Art Loss Register's Marinello said the items taken could be worth "hundreds of millions of euros" if sold legally at auction. However, he said that was now impossible, as the paintings have already been registered internationally as stolen.

The stolen paintings were Pablo Picasso's 1971 "HAsenk said she spoke on behalf of tarlequin Head"; Claude Monet's 1901 "Waterloo Bridge, London" and "Charing Cross Bridge, London"; Henri Matisse's 1919 "Reading Girl in White and Yellow"; Paul Gauguin's 1898 "Girl in Front of Open Window"; Meyer de Haan's "Self-Portrait," around 1890, and Lucian Freud's 2002 work "Woman with Eyes Closed."

Marinello said the thieves have limited options available, such as seeking a ransom from the owners, the museum or the insurers. They could conceivably sell the paintings in the criminal market too, though any sale would likely be a small fraction of their potential auction value.

The Triton Foundation is a collection of avant-garde art put together by multimillionaire Willem Cordia, an investor and businessman, and his wife, Marijke Cordia-VanThe Kunsthal museu der Laan.

Asenk said she spoke on behalf of the family in saying "we are shocked, but we will go on."

"All involved want the public to still be able to see these kinds of special collections and private collections," she said.

The museum was cordoned off as police carried out their investigation Tuesday, but the museum will reopen Wednesday, she said.

The Kunsthal museum is a display space that has no permanent collection of its own — the name means "art gallery" in Dutch.

The Cordia family collection includes works by more than 150 famed artists. Others whose work was on show include Paul Cezanne, Marc Chagall, Salvador Dali, Edgar Degas and Andy Warhol.

Curators of the Cordia family collection aim to have the works on display for the public, and pieces have been shown in the past.

http://www.nytimes.com/aponline/2012/10/16/world/europe/ap-eu-netherlands-art-heist.html?_r=1&hp

About the text, it’s incorrect to say that

Alternativas
Q2895723 Inglês

Read the text Picasso and Monets Are Stolen in Dutch Heist and answer questions 25), 26), 27),and 28).

Picasso and Monets Are Stolen in Dutch Heist

AMSTERDAM (AP) — Thieves broke into a Rotterdam museum on Tuesday and walked off with works from the likes of Picasso, Monet, Gauguin and Matisse potentially worth hundreds of millions.

Police haven't said how they pulled off the early hours heist, but an expert who tracks stolen art said the robbers clearly knew what they were after.

"Those thieves got one hell of a haul," said Chris Marinello, who directs the Art Loss Register.

The heist at the Kunsthal museum is one of the largest in years in the Netherlands, and is a stunning blow for the private Triton Foundation collection, which was being exhibited publicly as a group for the first time.

"It's every museum director's worst nightmare," said Kunsthal director Emily Ansenk, who had been in Istanbul on business but returned immediately.

News of the theft "struck like a bomb," she said at a press conference in the museum's cafe.

She declined to reveal any details of how the thieves struck, or how the museum is protected, other than describing its security as "state of the art" and "functional."

Willem van Hassel, the museum's chairman, said its security systems are automated, and do not use guards on site.

Police arrived at the scene five minutes after an alarm was triggered, he said. He described the museum's insurance as adequate for the exhibition.

The collection was on display as part of celebrations surrounding the museum's 20th anniversary.

Police spokeswoman Willemieke Romijn said investigators were reviewing videotapes of the theft, which took place around 3 a.m. local time, and calling for any witnesses to come forward.

The Art Loss Register's Marinello said the items taken could be worth "hundreds of millions of euros" if sold legally at auction. However, he said that was now impossible, as the paintings have already been registered internationally as stolen.

The stolen paintings were Pablo Picasso's 1971 "HAsenk said she spoke on behalf of tarlequin Head"; Claude Monet's 1901 "Waterloo Bridge, London" and "Charing Cross Bridge, London"; Henri Matisse's 1919 "Reading Girl in White and Yellow"; Paul Gauguin's 1898 "Girl in Front of Open Window"; Meyer de Haan's "Self-Portrait," around 1890, and Lucian Freud's 2002 work "Woman with Eyes Closed."

Marinello said the thieves have limited options available, such as seeking a ransom from the owners, the museum or the insurers. They could conceivably sell the paintings in the criminal market too, though any sale would likely be a small fraction of their potential auction value.

The Triton Foundation is a collection of avant-garde art put together by multimillionaire Willem Cordia, an investor and businessman, and his wife, Marijke Cordia-VanThe Kunsthal museu der Laan.

Asenk said she spoke on behalf of the family in saying "we are shocked, but we will go on."

"All involved want the public to still be able to see these kinds of special collections and private collections," she said.

The museum was cordoned off as police carried out their investigation Tuesday, but the museum will reopen Wednesday, she said.

The Kunsthal museum is a display space that has no permanent collection of its own — the name means "art gallery" in Dutch.

The Cordia family collection includes works by more than 150 famed artists. Others whose work was on show include Paul Cezanne, Marc Chagall, Salvador Dali, Edgar Degas and Andy Warhol.

Curators of the Cordia family collection aim to have the works on display for the public, and pieces have been shown in the past.

http://www.nytimes.com/aponline/2012/10/16/world/europe/ap-eu-netherlands-art-heist.html?_r=1&hp

The alternative that brings the most comprehensive idea about the text is

Alternativas
Q2877185 Inglês
not valid statement found

An equivalent way of saying “The portrait of Benjamin Harrison was designed and sculpted by United States Mint Sculptor-Engraver Phebe Hemphill.” (lines 21-23) is in:

Alternativas
Q2877184 Inglês
not valid statement found

According to the text, the obverse of each coin includes all the following pieces of information, EXCEPT

Alternativas
Q2877183 Inglês
not valid statement found

In 2012, the heads of the $1 coins will carry illustrations of

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Q2877179 Inglês
not valid statement found

In the text, the word in parentheses that describes the idea expressed by the words in bold-face type is in:

Alternativas
Q2877178 Inglês
not valid statement found

According to the text, the United States Mint is

Alternativas
Q2875374 Inglês
not valid statement found
In Text II, Joe Lykken states that
Alternativas
Q2875373 Inglês
not valid statement found
The following fragment of Text II is NOT completed correctly in
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Q2875372 Inglês
not valid statement found
The excerpt “Many physicists have already swung into action” (lines 8-9, Text II) could be properly completed in
Alternativas
Q2875371 Inglês
not valid statement found
Text II reports that
Alternativas
Q2875370 Inglês
not valid statement found
In Text I, the word in parentheses describes the idea expressed by the expression in boldface type in
Alternativas
Respostas
7621: D
7622: D
7623: C
7624: D
7625: B
7626: B
7627: B
7628: D
7629: A
7630: E
7631: D
7632: D
7633: A
7634: C
7635: B
7636: B
7637: B
7638: C
7639: E
7640: A