Questões de Concurso Sobre inglês

Foram encontradas 25.994 questões

Q4277115 Inglês

The quest to understand the fundamental nature of light has sparked debate for centuries and ultimately played a pivotal role in the development of quantum physics. Even the earliest recorded speculations about light contained the seeds of concepts that would, centuries later, be woven into our quantum understanding of reality. Some of the earliest recorded ideas about the nature of light appeared in the 6th century BCE. In India, for instance, the Vaisheshika school of philosophy described light as consisting of fire-like particles moving at a high speed. In ancient Greece, the Pythagoreans (6th 5th century BCE) and later Euclid (c. 300 BCE) advocated the emission theory of vision, suggesting that rays of light emanate from the eyes toward objects. In contrast, Epicurus (341 270 BCE) proposed an intromission theory, arguing that light consists of material images or "eidola" emitted by objects that travel to the eyes. Further insights into the nature of light emerged in Egypt, where Ptolemy (c. AD 90 168), working in Alexandria, conducted experiments showing that light reflects off smooth surfaces and bends when passing through transparent materials of different optical densities. Building on these concepts, Arab scholars made significant contributions to the understanding of light by establishing foundational principles governing its behavior in lenses, mirrors, and prisms. The most influential among them was the 11th-century scholar Ibn al-Haytham, who lived in present-day Iraq. Ibn al-Haytham corrected the emission theory, stating thatvision results from light entering the eye rather thanemanating from it. By the 17th century, European scientists were dividedbetween two competing theories about the fundamentalnature of light: whether it behaved as a wave or as aparticle. Dutch physicist Christiaan Huygens argued thatlight propagates as waves according to his wave-frontprinciple, which explains how waves evolve when theyencounter obstacles. In contrast, Isaac Newton proposeda corpuscular theory, suggesting that light consists ofparticles traveling in straight paths, capable of reflectingoff surfaces like mirrors. Newton's prism experiments,which showed white light splitting into colors with distinctrefraction angles, supported his corpuscular theory bysuggesting that light consists of particles of differentsizes, each corresponding to a different color, whichbend by different amounts. Both theories, however, were incomplete. Huygens' wavetheory struggled to fully explain why light travels in astraight path, and Newton's particle theory couldn'taccount for diffraction, the spreading of light as it passesaround edges or through narrow openings. Nevertheless,Newton's theory gained significant influence not onlybecause of his clever prism experiments, but alsobecause he was highly revered in the scientificcommunity, making his ideas difficult to challenge foryears. But science doesn't bow to reputation. As RichardFeynman famously pointed out in his 1964 MessengerLectures at Cornell University, "It doesn't matter howbeautiful your theory is, it doesn't matter how smart youare. If it doesn't agree with the experiment, it's wrong."Indeed, nearly a century after Newton's corpusculartheory of 1704, the scientific consensus gradually shiftedtoward the wave theory of light through decades ofexperiments, modeling, and debates. One of the keycontributors to this shift was Thomas Young, an Englishpolymath. In 1801, Young passed sunlight through anarrow slit to produce a coherent light beam. He thenplaced a thin obstacle, such as a hair or a narrow strip,across the beam, splitting it into two waves that spreadout and overlapped. When these waves recombined on ascreen, they produced a pattern of bright and dark bands.This interference pattern provided clear and compellingevidence that light behaves as a wave rather than as aparticle. A familiar example of this phenomenon is when waves onthe surface of water either combine to form larger peaksor cancel each other out. Later, in 1845, another Englishphysicist Michael Faraday showed that magnetic fieldscould alter the polarization plane of light, revealing aconnection between light and electromagnetism. In the1860s, Scottish physicist James Clerk Maxwell built onthis connection by formulating the theory ofelectromagnetism, describing light as an electromagneticwave composed of oscillating electric and magnetic fields at right angles to each other and to the wave's direction of travel. Heinrich Hertz's experimental confirmation of Maxwell's predictions in the 1880s provided further validation of the electromagnetic wave theory of light. By the 1890s, Maxwell's mathematical description of electromagnetic waves was considered so successful, particularly for its predictive power, that many physicists believed the fundamental nature of light was fully understood. But in the early 20th century, experimental discoveries began to challenge this consensus. The electromagnetic wave theory failed to predict how matter emits and absorbs radiation at thermal equilibrium. To address this question, German physicist Max Planck introduced a revolutionary idea known as energy quantization. He proposed that electromagnetic radiation is emitted or absorbed in discrete amounts, now called quanta, with higher frequency light corresponding to larger quanta. His theory accurately matched experimental results and earned him the Nobel Prize in Physics in 1918. Another major blow to the wave theory of light came from the photoelectric effect, first observed by Heinrich Hertz in 1887, when ultraviolet light caused electric charge to be emitted from a metal surface. By 1900, Philipp Lenard conducted detailed experiments to show that the energy of ejected electrons depended on light frequency, not intensity, an observation that classical wave theory struggled to explain. In 1905, Albert Einstein addressed this by proposing that light is made of discrete energy packets, now called photons, each carrying an energy proportional to its frequency according to Planck's quantization rule. This idea successfully explained the photoelectric effect and was later confirmed by Robert Millikan's experiments in 1915, which verified that the energy of the ejected electrons depends on light frequency and that intensity affects only the number of ejected electrons. Einstein's explanation earned him the 1921 Nobel Prize in Physics. The existence of the photon was further reinforced in 1923 by American physicist Arthur Compton, who showed that X-rays scatter off electrons and emerge with smaller frequencies. The photoelectric effect showed that light interacts with matter through discrete, fundamental processes, behaving as if it were made up of particles known as photons. On the other hand, Young's double-slit experiment provided convincing evidence that light also exhibits wave-like behavior through interference. These seemingly contradictory findings reveal the dual nature of light, a concept known as wave-particle duality. Today, this principle is central to quantum physics, which describes light as a quantum electromagnetic field. This field has discrete energy excitations called photons that can produce particle-like effects, while also exhibiting wave-like behavior depending on how light interacts with its environment. https://quantum2025.org/news-link/the-history-of-light-and-the-birth-of-q uantum-physics/ (adapted)

Read the sentence below:


Read the sentence below: "Another major blow to the wave theory of light camefrom the photoelectric effect, first observed by HeinrichHertz in 1887, when ultraviolet light caused electriccharge to be emitted from a metal surface."


Judge the statements below as TRUE (T) or FALSE (F).


( ) The segment “first observed by Heinrich Hertz in 1887” is a reduced passive construction that modifies “the photoelectric effect”.


( ) The verb “caused” is in the simple past and situates the described event within the historical sequence developed in the paragraph.


( ) In “to be emitted”, the noun phrase “electric charge” is grammatically represented as the entity affected by the process.


The CORRECT sequence is:

Alternativas
Q4277114 Inglês

The quest to understand the fundamental nature of light has sparked debate for centuries and ultimately played a pivotal role in the development of quantum physics. Even the earliest recorded speculations about light contained the seeds of concepts that would, centuries later, be woven into our quantum understanding of reality. Some of the earliest recorded ideas about the nature of light appeared in the 6th century BCE. In India, for instance, the Vaisheshika school of philosophy described light as consisting of fire-like particles moving at a high speed. In ancient Greece, the Pythagoreans (6th 5th century BCE) and later Euclid (c. 300 BCE) advocated the emission theory of vision, suggesting that rays of light emanate from the eyes toward objects. In contrast, Epicurus (341 270 BCE) proposed an intromission theory, arguing that light consists of material images or "eidola" emitted by objects that travel to the eyes. Further insights into the nature of light emerged in Egypt, where Ptolemy (c. AD 90 168), working in Alexandria, conducted experiments showing that light reflects off smooth surfaces and bends when passing through transparent materials of different optical densities. Building on these concepts, Arab scholars made significant contributions to the understanding of light by establishing foundational principles governing its behavior in lenses, mirrors, and prisms. The most influential among them was the 11th-century scholar Ibn al-Haytham, who lived in present-day Iraq. Ibn al-Haytham corrected the emission theory, stating thatvision results from light entering the eye rather thanemanating from it. By the 17th century, European scientists were dividedbetween two competing theories about the fundamentalnature of light: whether it behaved as a wave or as aparticle. Dutch physicist Christiaan Huygens argued thatlight propagates as waves according to his wave-frontprinciple, which explains how waves evolve when theyencounter obstacles. In contrast, Isaac Newton proposeda corpuscular theory, suggesting that light consists ofparticles traveling in straight paths, capable of reflectingoff surfaces like mirrors. Newton's prism experiments,which showed white light splitting into colors with distinctrefraction angles, supported his corpuscular theory bysuggesting that light consists of particles of differentsizes, each corresponding to a different color, whichbend by different amounts. Both theories, however, were incomplete. Huygens' wavetheory struggled to fully explain why light travels in astraight path, and Newton's particle theory couldn'taccount for diffraction, the spreading of light as it passesaround edges or through narrow openings. Nevertheless,Newton's theory gained significant influence not onlybecause of his clever prism experiments, but alsobecause he was highly revered in the scientificcommunity, making his ideas difficult to challenge foryears. But science doesn't bow to reputation. As RichardFeynman famously pointed out in his 1964 MessengerLectures at Cornell University, "It doesn't matter howbeautiful your theory is, it doesn't matter how smart youare. If it doesn't agree with the experiment, it's wrong."Indeed, nearly a century after Newton's corpusculartheory of 1704, the scientific consensus gradually shiftedtoward the wave theory of light through decades ofexperiments, modeling, and debates. One of the keycontributors to this shift was Thomas Young, an Englishpolymath. In 1801, Young passed sunlight through anarrow slit to produce a coherent light beam. He thenplaced a thin obstacle, such as a hair or a narrow strip,across the beam, splitting it into two waves that spreadout and overlapped. When these waves recombined on ascreen, they produced a pattern of bright and dark bands.This interference pattern provided clear and compellingevidence that light behaves as a wave rather than as aparticle. A familiar example of this phenomenon is when waves onthe surface of water either combine to form larger peaksor cancel each other out. Later, in 1845, another Englishphysicist Michael Faraday showed that magnetic fieldscould alter the polarization plane of light, revealing aconnection between light and electromagnetism. In the1860s, Scottish physicist James Clerk Maxwell built onthis connection by formulating the theory ofelectromagnetism, describing light as an electromagneticwave composed of oscillating electric and magnetic fields at right angles to each other and to the wave's direction of travel. Heinrich Hertz's experimental confirmation of Maxwell's predictions in the 1880s provided further validation of the electromagnetic wave theory of light. By the 1890s, Maxwell's mathematical description of electromagnetic waves was considered so successful, particularly for its predictive power, that many physicists believed the fundamental nature of light was fully understood. But in the early 20th century, experimental discoveries began to challenge this consensus. The electromagnetic wave theory failed to predict how matter emits and absorbs radiation at thermal equilibrium. To address this question, German physicist Max Planck introduced a revolutionary idea known as energy quantization. He proposed that electromagnetic radiation is emitted or absorbed in discrete amounts, now called quanta, with higher frequency light corresponding to larger quanta. His theory accurately matched experimental results and earned him the Nobel Prize in Physics in 1918. Another major blow to the wave theory of light came from the photoelectric effect, first observed by Heinrich Hertz in 1887, when ultraviolet light caused electric charge to be emitted from a metal surface. By 1900, Philipp Lenard conducted detailed experiments to show that the energy of ejected electrons depended on light frequency, not intensity, an observation that classical wave theory struggled to explain. In 1905, Albert Einstein addressed this by proposing that light is made of discrete energy packets, now called photons, each carrying an energy proportional to its frequency according to Planck's quantization rule. This idea successfully explained the photoelectric effect and was later confirmed by Robert Millikan's experiments in 1915, which verified that the energy of the ejected electrons depends on light frequency and that intensity affects only the number of ejected electrons. Einstein's explanation earned him the 1921 Nobel Prize in Physics. The existence of the photon was further reinforced in 1923 by American physicist Arthur Compton, who showed that X-rays scatter off electrons and emerge with smaller frequencies. The photoelectric effect showed that light interacts with matter through discrete, fundamental processes, behaving as if it were made up of particles known as photons. On the other hand, Young's double-slit experiment provided convincing evidence that light also exhibits wave-like behavior through interference. These seemingly contradictory findings reveal the dual nature of light, a concept known as wave-particle duality. Today, this principle is central to quantum physics, which describes light as a quantum electromagnetic field. This field has discrete energy excitations called photons that can produce particle-like effects, while also exhibiting wave-like behavior depending on how light interacts with its environment. https://quantum2025.org/news-link/the-history-of-light-and-the-birth-of-q uantum-physics/ (adapted)

Considere as palavras "eletromagnético", "incompleto" e "quantização", que ocorrem no texto. Em relação à sua estrutura morfológica, marque a alternativa CORRETA.
Alternativas
Q4275648 Inglês
To develop auditory discrimination, a teacher prepares sentences containing English words that differ by one sound. Students listen to each sentence and identify the word they hear. Match the word pairs in Column I with the phonological contrast described in Column II.

Column         I
1.Ship   /  Sheep 2.Fan    /   Van 3.Rice    /  Rise 4.Bet      /  Bat

Column II

I.Contrast between voiced and voiceless consonants.
II.Contrast between a short front vowel and a long front vowel.
III.Contrast involving the final consonant sound.
IV.Contrast between two front vowel sounds.

Select the alternative that presents the correct matching.
Alternativas
Q4275643 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
A wildlife report describes the long-tailed skua as a migratory bird whose location and diet change during the year. The passage connects its breeding period in northern regions with a later movement toward oceanic areas in the Southern Hemisphere. Select the description that represents this seasonal pattern.
Alternativas
Q4275642 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
After reading the sections about sundews and common butterwort, students compare the characteristics of the two carnivorous plants. Evaluate the statements and mark them as true (T) or false (F).

(__)Both plants grow in environments with limited nutrient availability.
(__)Both plants use sticky substances on their leaves to capture small insects.
(__)Butterwort flowers are described as being pollinated by bees.
(__)Butterwort absorbs the rigid outer covering of the insect as a nutrient.

Select the sequence that represents the statements from top to bottom.
Alternativas
Q4275641 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
During a reading activity, students are asked to reconstruct the sequence through which a sundew captures, digests and releases the remains of an insect. The task requires attention to the chronological organization of the actions described in the passage. Select the sequence that represents this process accurately.
Alternativas
Q4275640 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
Sundew flowers attract insects that may contribute to pollination, while the leaves capture small invertebrates as a source of nutrients. The passage highlights that the flowers are positioned on long stems above the trapping leaves. This spatial arrangement contributes to the plant's reproductive process because it:
Alternativas
Q4275639 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
A student is preparing a short presentation about carnivorous plants found in Shetland. While organizing the information, the student needs to distinguish the habitat of the great sundew from the environment associated with the round-leaved sundew. Based on the descriptions presented in the text, select the information that correctly characterizes the great sundew.
Alternativas
Q4275638 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
The text describes each sticky droplet on a sundew leaf as a trap capable of "ensnaring the unsuspecting insect." The surrounding sentences explain that the secretion attracts flies and prevents them from escaping after contact with the leaf. In this context, the verb "ensnaring" expresses the idea of:         
Alternativas
Q4275637 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
  A   teacher uses the passage to assess whether students can identify relationships between biological structures and their functions. Consider the statements concerning the capture and digestion mechanism of the sundew.

I.The mucilage may interfere with the spiracles through which the insect breathes.
II.Sensitive hairs detect the presence of prey and begin to curl inward.
III.Digestive enzymes break down the softer parts of the captured insect.
IV.The plant discards the nutrients before reopening its leaves.

Select the alternative that presents the correct statements.
Alternativas
Q4275636 Inglês
Carnivorous great sundew plants produce sticky sweet-smelling secretions as a deadly trap to ensnare unsuspecting insects


The great sundew has a restricted distribution in Shetland, growing mainly in North Roe. It is generally a larger plant than the commoner round-leaved sundew, reaching up to 20 cm. The leaves are long and spatulate, narrowing at the hairless leaf stalks. Great sundew grows in wetter bog habitats than round-leaved sundew, often found at the margins of pools.

Round-leaved sundew has, as the name suggests, round leaves up to 1 cm across. The leaf stalks are covered in tiny hairs. It is often found growing on hummocks of sphagnum moss and on wet heaths. In late summer, both species of sundew produce tiny flowers, borne on long stems which arise from the centre of the rosette of leaves.

Sundews are carnivorous plants which grow in nutrient-poor, acidic soils. They supplement their nutrient supply by catching and digesting small invertebrates. The leaves are covered with red hairs, each tipped by a droplet. The name "sundew" refers to these glistening droplets resembling dew. The hairs are tiny glands, producing a sticky sweet-smelling secretion which attracts small insects like flies. Each droplet is a deadly trap, ensnaring the unsuspecting insect.

As the fly struggles to escape, the mucilage starts to clog up its spiracles, tiny holes through which it breathes. The leaf hairs are very sensitive, having detected the insect, they start to curl inward. Very slowly the leaves also curl inwards and the droplets exude an enzyme which starts to digest the soft parts of the fly. The resulting fly soup is then absorbed by the leaves. Several days later, the leaves uncurl and the remains of the insect are discarded. The droplets then reappear at the end of the tentacles and the trap is reset. It is estimated that a sundew can catch up to 2,000 insects during the summer.

Sundew flowers only open in sunny weather for a few hours during the day. Raised high above the insect-trapping leaves, the flowers attract pollinators such as flies and midges. However, the flowers can also self-pollinate. In winter, the sundews which grow in temperate climates form a resting bud to survive the cold, from which they re-grow in spring.

Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!Ross-shire through the Lens: Lochcarron Highland Games Attadale wonderland!

Read More

Also growing in nitrogen-poor bogs and wet acidic heaths is another carnivorous plant, common butterwort. In spring, small green stars of yellow-green basal leaves appear flat to the ground. From this rosette two or three upright stalks grow, each producing small deep-purple flowers. Bees mainly pollinate these flowers but they can also self-pollinate.

Common butterwort also tops up its nutrients by catching and digesting prey. However, its bee pollinators are too large to be caught. Nearer the ground, small insects are trapped on the starfish-like leaves. These are covered in tiny sticky drops of mucilage so that they always look wet. The insects are attracted to the moisture and land on the leaf but quickly become stuck. The leaf edges slowly curl inwards to prevent escape and the plant secretes digestive enzymes which break down the soft parts of the insect. The liquefied nutrients are absorbed by the leaf before the leaf eventually uncurls to reveal the chitinous husk.

The common name, 'butterwort', refers to the fatty appearance of the leaves. Wort is an Old English word for a plant or herb. It was believed that rubbing butterwort leaves on a cow's udders would protect the cow from evil spirits and ensure a good supply of butter. The leaves were also used to curdle and thicken milk during cheese and butter making.

Birds of note this week included the queen eider in Lerwick harbour, a black-throated diver at Urafirth, an osprey in Unst, an eclipse male ring-necked duck at Clickimin, a ring-billed gull on Noss and a long-tailed skua at the airstrip in Foula.

The long-tailed skua is a scarce migrant, more commonly observed offshore in spring and autumn. Long-tailed skuas have a circumpolar distribution, breeding on the Arctic tundra, and are found in northern parts of Scandinavia. In summer, lemmings are a major part of their diet. After the breeding season, they migrate to the south Atlantic, spending the winter months at sea, feeding on fish. The smallest of the skuas, the long-tailed skua is about the size of a black-headed gull. Slim with long, slender wings, the flight is graceful and tern-like. In adult summer breeding plumage, it is readily identified by very long central tail feathers which can measure up to 20cm. The dark brown-grey upperparts, with black patches on the wings, contrast with pale underparts and a dark cap.

Cetacean sightings this week have included Risso's dolphin, white-beaked dolphin, common dolphin, harbour porpoise, minke and orca.


https://www.shetlandtimes.co.uk/news/carnivorous-plants-produce-stick
y-sweet-smelling-secretions-440918/
The passage states that common butterwort "tops up its nutrients by catching and digesting prey." The expression appears after the description of the nutrient-poor bogs and acidic heaths where the plant grows. Considering this relationship, the expression "tops up" indicates that the plant:
Alternativas
Q4261708 Inglês

Compreensão de textos em Língua Inglesa


The Importance of Didactics and

Methodology in English Language Teaching


Teaching English involves much more than explaining grammar rules or asking students to memorize vocabulary. Effective English language teaching requires careful planning, appropriate teaching methods, and an understanding of how students learn.


Didactics refers to the principles and strategies that guide the teaching and learning process. It helps teachers organize lessons, define learning objectives, choose suitable materials, and evaluate students’ progress. Good didactics creates a positive learning environment where students feel motivated to participate and develop their language skills.


Methodology, on the other hand, focuses on the methods and approaches used in the classroom. Throughout history, different methodologies have been developed to improve language learning. For example, the Grammar-Translation Method emphasizes reading, writing, and translation, while the Communicative Language Teaching (CLT) approach encourages students to use English in real-life situations through meaningful interaction.


Modern English teaching often combines different methodologies to meet the needs of diverse learners. Teachers may use games, technology, group work, role-playing activities, and project-based learning to make lessons more engaging and effective. This flexible approach recognizes that students have different learning styles, interests, and levels of proficiency.


Assessment is another essential part of the teaching process. Besides traditional tests, teachers can evaluate students through presentations, classroom participation, portfolios, and collaborative projects. Continuous assessment allows teachers to monitor students’ progress and adjust their teaching strategies when necessary.


Finally, an effective English teacher is not only knowledgeable about the language but also reflective about their teaching practice. By evaluating their lessons and seeking professional development, teachers can continuously improve their instructional methods and better support their students’ learning.




Read the paragraph below about English as a Global Language.
“Interculturality highlights the role of the English language as a global means of communication, connecting people from different countries, cultures, and backgrounds. As an international language, English enables individuals to exchange ideas, collaborate, and build relationships across ________boundaries. At the same time, it reflects the richness of __________diversity and includes many linguistic and__________variations influenced by local traditions, accents, and expressions. Understanding these differences is essential for effective communication in international contexts, as it promotes respect, empathy, and __________ awareness. By using English in a way that values diversity, people can communicate more successfully and contribute to a more inclusive and interconnected world.”
Select the alternative containing the word that correctly completes all the blanks in the text.
Alternativas
Q4261707 Inglês

Compreensão de textos em Língua Inglesa


The Importance of Didactics and

Methodology in English Language Teaching


Teaching English involves much more than explaining grammar rules or asking students to memorize vocabulary. Effective English language teaching requires careful planning, appropriate teaching methods, and an understanding of how students learn.


Didactics refers to the principles and strategies that guide the teaching and learning process. It helps teachers organize lessons, define learning objectives, choose suitable materials, and evaluate students’ progress. Good didactics creates a positive learning environment where students feel motivated to participate and develop their language skills.


Methodology, on the other hand, focuses on the methods and approaches used in the classroom. Throughout history, different methodologies have been developed to improve language learning. For example, the Grammar-Translation Method emphasizes reading, writing, and translation, while the Communicative Language Teaching (CLT) approach encourages students to use English in real-life situations through meaningful interaction.


Modern English teaching often combines different methodologies to meet the needs of diverse learners. Teachers may use games, technology, group work, role-playing activities, and project-based learning to make lessons more engaging and effective. This flexible approach recognizes that students have different learning styles, interests, and levels of proficiency.


Assessment is another essential part of the teaching process. Besides traditional tests, teachers can evaluate students through presentations, classroom participation, portfolios, and collaborative projects. Continuous assessment allows teachers to monitor students’ progress and adjust their teaching strategies when necessary.


Finally, an effective English teacher is not only knowledgeable about the language but also reflective about their teaching practice. By evaluating their lessons and seeking professional development, teachers can continuously improve their instructional methods and better support their students’ learning.




Analyze the following sentences from the text according to Linguistic Aspects of the English Language.
1. In the second paragraph of the text, the underlined word: …students’ progress, is the contracted form of the verb to be is.
2. The words on the other hand, in the third paragraph of the text is a conjunctive adverb (or a sentence connector), being used to introduce a contrasting fact.
3. The word their in bold (5th paragraph), in the sentence: Continuous assessment allows teachers to monitor students’ progress and adjust their teaching strategies when necessary, refers to strategies.
4. In the following sentence: …an effective English teacher is not only knowledgeable about the language but also reflective…, the not only… but also construction is used to connect two similar, grammatically equal parts of a sentence.
Choose the alternative which presents the correct sequence:
Alternativas
Q4261706 Inglês

Compreensão de textos em Língua Inglesa


The Importance of Didactics and

Methodology in English Language Teaching


Teaching English involves much more than explaining grammar rules or asking students to memorize vocabulary. Effective English language teaching requires careful planning, appropriate teaching methods, and an understanding of how students learn.


Didactics refers to the principles and strategies that guide the teaching and learning process. It helps teachers organize lessons, define learning objectives, choose suitable materials, and evaluate students’ progress. Good didactics creates a positive learning environment where students feel motivated to participate and develop their language skills.


Methodology, on the other hand, focuses on the methods and approaches used in the classroom. Throughout history, different methodologies have been developed to improve language learning. For example, the Grammar-Translation Method emphasizes reading, writing, and translation, while the Communicative Language Teaching (CLT) approach encourages students to use English in real-life situations through meaningful interaction.


Modern English teaching often combines different methodologies to meet the needs of diverse learners. Teachers may use games, technology, group work, role-playing activities, and project-based learning to make lessons more engaging and effective. This flexible approach recognizes that students have different learning styles, interests, and levels of proficiency.


Assessment is another essential part of the teaching process. Besides traditional tests, teachers can evaluate students through presentations, classroom participation, portfolios, and collaborative projects. Continuous assessment allows teachers to monitor students’ progress and adjust their teaching strategies when necessary.


Finally, an effective English teacher is not only knowledgeable about the language but also reflective about their teaching practice. By evaluating their lessons and seeking professional development, teachers can continuously improve their instructional methods and better support their students’ learning.




Study the sentences below and decide if they are true ( T ) or false ( F ), according to the text.
( ) Technology can be used to support English language learning. ( ) Assessment should only consist of written exams. ( ) Didactics helps teachers organize lessons and learning objectives. ( ) Modern English teaching usually follows only one methodology.
Choose the alternative which presents the correct sequence, from top to bottom.
Alternativas
Q4261705 Inglês

Compreensão de textos em Língua Inglesa


The Importance of Didactics and

Methodology in English Language Teaching


Teaching English involves much more than explaining grammar rules or asking students to memorize vocabulary. Effective English language teaching requires careful planning, appropriate teaching methods, and an understanding of how students learn.


Didactics refers to the principles and strategies that guide the teaching and learning process. It helps teachers organize lessons, define learning objectives, choose suitable materials, and evaluate students’ progress. Good didactics creates a positive learning environment where students feel motivated to participate and develop their language skills.


Methodology, on the other hand, focuses on the methods and approaches used in the classroom. Throughout history, different methodologies have been developed to improve language learning. For example, the Grammar-Translation Method emphasizes reading, writing, and translation, while the Communicative Language Teaching (CLT) approach encourages students to use English in real-life situations through meaningful interaction.


Modern English teaching often combines different methodologies to meet the needs of diverse learners. Teachers may use games, technology, group work, role-playing activities, and project-based learning to make lessons more engaging and effective. This flexible approach recognizes that students have different learning styles, interests, and levels of proficiency.


Assessment is another essential part of the teaching process. Besides traditional tests, teachers can evaluate students through presentations, classroom participation, portfolios, and collaborative projects. Continuous assessment allows teachers to monitor students’ progress and adjust their teaching strategies when necessary.


Finally, an effective English teacher is not only knowledgeable about the language but also reflective about their teaching practice. By evaluating their lessons and seeking professional development, teachers can continuously improve their instructional methods and better support their students’ learning.




 Read the text carefully and mark the correct alternative.
Alternativas
Q4261703 Inglês
Analyze the sentences according to English Phonetics and Phonology.
1. The words ship and sheep differ only in spelling; they are pronounced exactly the same.
2. Word stress can change the meaning or grammatical category of some English words, such as record (noun) and record (verb).
3. The plural ending -s has different pronunciations depending on the final sound of the noun.
4. The words live (verb) and live (adjective, meaning not recorded)”, are pronounced the same way.
5. Correct pronunciation involves not only producing individual sounds accurately but also using appropriate stress and intonation.
Choose the alternative which contains the correct statements.
Alternativas
Q4254787 Inglês
Por que o ensino de língua estrangeira no Brasil, tanto no Ensino Médio quanto nas séries finais do Fundamental, é muitas vezes criticado como “monótono e repetitivo”?
Alternativas
Q4254774 Inglês
AI teachers and cybernetics - what could the world look like in 2050?

Laura Cress - Technology reporter


   The last 25 years has seen some mind-bending technological changes. At the start of the century, most computers connected to the internet with noisy dial-up connections, Netflix was an online DVD rental company, and the vast majority of people hadn't even heard of a smartphone. Fast forward two and a half decades, and innovations in AI, robotics and much else besides are emerging at an incredible rate. So we decided to ask experts what the next 25 years could bring. Here are their predictions for the technology we'll be using by 2050 - and how it could reshape our lives.

    Merging humans and machines

    Science fiction set in the 2050s is full of examples of humans using technological enhancements to feel fitter, happier and more productive. In the 2000 hit game Deus Ex - set in 2052 - the player can inject themselves with tiny robots called “nanites”. These microscopic robots manipulate matter on atomic levels, giving superhuman abilities such as enhanced speed and the ability to see in the dark. It sounds like something from the distant future, but nanotechnology - engineering at a scale of millionths of a millimetre - is already used in lots of everyday real-life tech. In fact, it is powering the way you are reading these very words right now - every smartphone or computer is run by a central chip made up of billions of tiny transistors - electrical components built on a nanoscale to speed up data processing. Professor Steven Bramwell at the London Centre for Nanotechnology told the BBC by 2050 we should expect the lines between machines, electronics and biology to be “significantly blurred”. That means we could see nanotechnology implants by then - but more to “monitor your health or aid communication” rather than to appear invisible, as in Deus Ex. Medicine could also make common use of machines at a nanometre scale to “deliver drugs to exactly where they need to go”, said Professor Bramwell. Cybernetics professor Kevin Warwick is equally interested in studying augmentations, going one step further than most. In 1998 he became the first human to have a microchip implanted into his nervous system, earning him the title “Captain Cyborg”. Professor Warwick believes by 2050, advancements in cybernetics - the science studying the links between natural and mechanical systems - could lead to trailblazing treatments for diseases. He predicts the use of “deep brain electronic stimulation” as a partial treatment for some conditions such as schizophrenia, rather than medicine. He adds it is likely we'll see more cybernetic enhancements of the kind he has already trialled himself, so that “your brain and body can be in different places”. And what if we wanted to test out how the latest enhancement, or even new diet worked on our bodies, without any risks of experiencing the side effects? Professor Roger Highfield, Science Director of the Science Museum, believes “digital twins” - virtual versions of a physical object, updated using real time data - could become a regular feature in our lives. He imagines a world where each of us could have “thousands of simplified twins”, using them to explore how “different medications or lifestyle changes affect your unique biology”. In other words, we could preview our futures before we live them.

     The next generation of AI  

    Many technology firms, including Google and IBM, are currently locked in a multi-billion dollar race to revolutionise how we push fields like AI even further - in the form of quantum computing. Quantum computers are machines which can do very complex calculations at incredibly fast speeds - for example, simulating molecular interactions to design new drugs faster. In January 2025, Jensen Huang - boss of the leading chip firm Nvidia - said he believed “very useful” quantum computing would come in 20 years. AI itself will undoubtedly continue to loom large in our society as we journey towards the half century mark. Futurist and author Tracey Follows, who helped write a White Paper on UK education in 2050, believes learning will take place across “virtual and physical realities” using AI teachers which “adjust in real time”. Rather than textbooks, she predicts children will use “immersive simulations”. Meanwhile, education will be less standardised, with each child's individual DNA or biometric data studied to understand how they learn best.

Available on https://www.bbc.com/news/articles/c865n800d5jo
Based on the “quadro organizador” concepts of contemporary English teaching, how does the text suggest the future of education will change regarding student data?
Alternativas
Q4254773 Inglês
AI teachers and cybernetics - what could the world look like in 2050?

Laura Cress - Technology reporter


   The last 25 years has seen some mind-bending technological changes. At the start of the century, most computers connected to the internet with noisy dial-up connections, Netflix was an online DVD rental company, and the vast majority of people hadn't even heard of a smartphone. Fast forward two and a half decades, and innovations in AI, robotics and much else besides are emerging at an incredible rate. So we decided to ask experts what the next 25 years could bring. Here are their predictions for the technology we'll be using by 2050 - and how it could reshape our lives.

    Merging humans and machines

    Science fiction set in the 2050s is full of examples of humans using technological enhancements to feel fitter, happier and more productive. In the 2000 hit game Deus Ex - set in 2052 - the player can inject themselves with tiny robots called “nanites”. These microscopic robots manipulate matter on atomic levels, giving superhuman abilities such as enhanced speed and the ability to see in the dark. It sounds like something from the distant future, but nanotechnology - engineering at a scale of millionths of a millimetre - is already used in lots of everyday real-life tech. In fact, it is powering the way you are reading these very words right now - every smartphone or computer is run by a central chip made up of billions of tiny transistors - electrical components built on a nanoscale to speed up data processing. Professor Steven Bramwell at the London Centre for Nanotechnology told the BBC by 2050 we should expect the lines between machines, electronics and biology to be “significantly blurred”. That means we could see nanotechnology implants by then - but more to “monitor your health or aid communication” rather than to appear invisible, as in Deus Ex. Medicine could also make common use of machines at a nanometre scale to “deliver drugs to exactly where they need to go”, said Professor Bramwell. Cybernetics professor Kevin Warwick is equally interested in studying augmentations, going one step further than most. In 1998 he became the first human to have a microchip implanted into his nervous system, earning him the title “Captain Cyborg”. Professor Warwick believes by 2050, advancements in cybernetics - the science studying the links between natural and mechanical systems - could lead to trailblazing treatments for diseases. He predicts the use of “deep brain electronic stimulation” as a partial treatment for some conditions such as schizophrenia, rather than medicine. He adds it is likely we'll see more cybernetic enhancements of the kind he has already trialled himself, so that “your brain and body can be in different places”. And what if we wanted to test out how the latest enhancement, or even new diet worked on our bodies, without any risks of experiencing the side effects? Professor Roger Highfield, Science Director of the Science Museum, believes “digital twins” - virtual versions of a physical object, updated using real time data - could become a regular feature in our lives. He imagines a world where each of us could have “thousands of simplified twins”, using them to explore how “different medications or lifestyle changes affect your unique biology”. In other words, we could preview our futures before we live them.

     The next generation of AI  

    Many technology firms, including Google and IBM, are currently locked in a multi-billion dollar race to revolutionise how we push fields like AI even further - in the form of quantum computing. Quantum computers are machines which can do very complex calculations at incredibly fast speeds - for example, simulating molecular interactions to design new drugs faster. In January 2025, Jensen Huang - boss of the leading chip firm Nvidia - said he believed “very useful” quantum computing would come in 20 years. AI itself will undoubtedly continue to loom large in our society as we journey towards the half century mark. Futurist and author Tracey Follows, who helped write a White Paper on UK education in 2050, believes learning will take place across “virtual and physical realities” using AI teachers which “adjust in real time”. Rather than textbooks, she predicts children will use “immersive simulations”. Meanwhile, education will be less standardised, with each child's individual DNA or biometric data studied to understand how they learn best.

Available on https://www.bbc.com/news/articles/c865n800d5jo
The text mentions that “lines between machines, electronics and biology” will be “significantly blurred.” In this context, what does the word “blurred” imply regarding the relationship between these fields?
Alternativas
Q4254772 Inglês
AI teachers and cybernetics - what could the world look like in 2050?

Laura Cress - Technology reporter


   The last 25 years has seen some mind-bending technological changes. At the start of the century, most computers connected to the internet with noisy dial-up connections, Netflix was an online DVD rental company, and the vast majority of people hadn't even heard of a smartphone. Fast forward two and a half decades, and innovations in AI, robotics and much else besides are emerging at an incredible rate. So we decided to ask experts what the next 25 years could bring. Here are their predictions for the technology we'll be using by 2050 - and how it could reshape our lives.

    Merging humans and machines

    Science fiction set in the 2050s is full of examples of humans using technological enhancements to feel fitter, happier and more productive. In the 2000 hit game Deus Ex - set in 2052 - the player can inject themselves with tiny robots called “nanites”. These microscopic robots manipulate matter on atomic levels, giving superhuman abilities such as enhanced speed and the ability to see in the dark. It sounds like something from the distant future, but nanotechnology - engineering at a scale of millionths of a millimetre - is already used in lots of everyday real-life tech. In fact, it is powering the way you are reading these very words right now - every smartphone or computer is run by a central chip made up of billions of tiny transistors - electrical components built on a nanoscale to speed up data processing. Professor Steven Bramwell at the London Centre for Nanotechnology told the BBC by 2050 we should expect the lines between machines, electronics and biology to be “significantly blurred”. That means we could see nanotechnology implants by then - but more to “monitor your health or aid communication” rather than to appear invisible, as in Deus Ex. Medicine could also make common use of machines at a nanometre scale to “deliver drugs to exactly where they need to go”, said Professor Bramwell. Cybernetics professor Kevin Warwick is equally interested in studying augmentations, going one step further than most. In 1998 he became the first human to have a microchip implanted into his nervous system, earning him the title “Captain Cyborg”. Professor Warwick believes by 2050, advancements in cybernetics - the science studying the links between natural and mechanical systems - could lead to trailblazing treatments for diseases. He predicts the use of “deep brain electronic stimulation” as a partial treatment for some conditions such as schizophrenia, rather than medicine. He adds it is likely we'll see more cybernetic enhancements of the kind he has already trialled himself, so that “your brain and body can be in different places”. And what if we wanted to test out how the latest enhancement, or even new diet worked on our bodies, without any risks of experiencing the side effects? Professor Roger Highfield, Science Director of the Science Museum, believes “digital twins” - virtual versions of a physical object, updated using real time data - could become a regular feature in our lives. He imagines a world where each of us could have “thousands of simplified twins”, using them to explore how “different medications or lifestyle changes affect your unique biology”. In other words, we could preview our futures before we live them.

     The next generation of AI  

    Many technology firms, including Google and IBM, are currently locked in a multi-billion dollar race to revolutionise how we push fields like AI even further - in the form of quantum computing. Quantum computers are machines which can do very complex calculations at incredibly fast speeds - for example, simulating molecular interactions to design new drugs faster. In January 2025, Jensen Huang - boss of the leading chip firm Nvidia - said he believed “very useful” quantum computing would come in 20 years. AI itself will undoubtedly continue to loom large in our society as we journey towards the half century mark. Futurist and author Tracey Follows, who helped write a White Paper on UK education in 2050, believes learning will take place across “virtual and physical realities” using AI teachers which “adjust in real time”. Rather than textbooks, she predicts children will use “immersive simulations”. Meanwhile, education will be less standardised, with each child's individual DNA or biometric data studied to understand how they learn best.

Available on https://www.bbc.com/news/articles/c865n800d5jo
In the sentence “In 1998 he became the first human to have a microchip implanted into his nervous system,” identify the classification of the verbs “became” and “implanted.”
Alternativas
Respostas
461: B
462: D
463: C
464: C
465: B
466: D
467: B
468: A
469: C
470: B
471: D
472: C
473: D
474: B
475: E
476: C
477: B
478: C
479: A
480: C