IELTS Academic Reading Practice Test 100

In the summer of 1799, during Napoleon Bonaparte's military campaign in Egypt, a group of French soldiers were rebuilding a ruined Ottoman fort near the small port of Rosetta, which stands on the western branch of the Nile Delta. While pulling down an old wall, they uncovered a large dark stone slab that had been reused as ordinary building material. They could not have suspected that the broken slab would become the most important object in the scientific study of ancient Egypt, but they recognised that its smooth surface carried three distinct bands of carefully carved writing.

The slab is a block of granodiorite, a hard grey-black rock, roughly 112 centimetres high, 75 centimetres wide and 28 centimetres thick, and it weighs around 760 kilograms. Its upper right-hand portion, which contained the end of the hieroglyphic text, had been knocked away, leaving only a fragment of that inscription. The surviving face carries a decree passed in 196 BC by an assembly of priests at Memphis to honour the young king Ptolemy V Epiphanes and to list the benefits he had granted to the temples. The same decree is recorded in three forms of writing but only two languages: Egyptian, written in formal hieroglyphs at the top and in the cursive Demotic script in the middle, and ancient Greek at the bottom.

Because ancient Greek was still widely taught and read, scholars could understand the bottom section with relative ease. It revealed that the inscription was not a hidden religious formula but an administrative and political decree, concerned mainly with taxation, temple privileges and the royal cult. However, reading the Greek did not immediately explain the other two scripts. Although the three texts were related in content, they were not simple word-for-word translations, and the Egyptian scripts operated on principles that no scholar had yet worked out.

The stone's journey to London followed the defeat of the French army by British and Ottoman forces. Under the terms of the capitulation signed at Alexandria in 1801, the antiquities collected by the French expedition were transferred to the British. The slab arrived in England in 1802 and was placed in the British Museum, where it has remained ever since, apart from a short period of protective storage during the First World War. Plaster casts and printed copies of the inscription were soon sent to universities and learned societies across Europe, allowing the work of decipherment to proceed in several countries at once.

Early attempts to read the Egyptian scripts made only limited progress. Many researchers still believed that hieroglyphs were purely symbolic pictures, with each sign representing an idea or an object rather than a sound. The French orientalist Silvestre de Sacy and the Swedish diplomat Johan David Åkerblad managed to identify some words and letters in the Demotic section, but neither could produce a reliable reading of the whole text. The oval rings that enclosed certain groups of signs were noticed, yet their purpose remained unclear for several years, and no scholar had demonstrated that they contained royal names.

The English physician and physicist Thomas Young made the next substantial advance. Working mainly from paper copies and plaster casts of the inscription, Young examined the oval rings, which are now called cartouches. He observed that the same groups of signs appeared within them in positions where a royal name would be expected, and he identified the name of Ptolemy together with several phonetic values. Young was also able to show that the Demotic script and the hieroglyphic script were closely related, though he continued to believe that most of the signs were symbolic rather than phonetic, and he never fully abandoned that belief.

The decisive breakthrough came from Jean-François Champollion, a gifted French teacher and linguist. Unlike Young, Champollion knew Coptic, the late form of the ancient Egyptian language, which was still used as a liturgical language by the Christian church in Egypt. He reasoned that Coptic might preserve the pronunciation of words written in hieroglyphs many centuries earlier. By comparing the cartouches of Ptolemy and Cleopatra, he identified a small set of phonetic signs and realised that the hieroglyphic system combined sound signs with idea signs, an insight that had escaped all previous researchers.

In September 1822, Champollion presented a summary of his method in a letter read to the Académie des Inscriptions et Belles-Lettres in Paris. He announced that he had established the principles of the hieroglyphic system. Over the following decade he extended his system, produced a grammar and began work on a dictionary. His achievement turned the study of ancient Egypt into a systematic discipline, and the Rosetta Stone became the central symbol of the new science of Egyptology.

For all its fame, the Rosetta Stone was not a magic key. Champollion drew on other inscriptions and on Coptic as well as the stone itself, and many details of the language remained to be worked out after 1822. Moreover, the slab is damaged and its upper hieroglyphic section is missing, so no complete copy of that part of the text exists. The stone nevertheless supplied the vital starting point, and it remains the most celebrated example of a bilingual monument.

Today the stone attracts large numbers of visitors to the British Museum, and its name has entered everyday speech as a term for anything that provides the crucial clue to a difficult problem. At the same time, debate continues about where the object should permanently belong, since Egypt has periodically requested its return. It therefore remains both a treasured archaeological artefact and a focus of cultural argument.

On the morning of 14 November 1963, the crew of a fishing trawler south of Iceland noticed a dark column of smoke rising from the sea. They thought at first that a ship was on fire, but the smoke continued to pour from the water without any wreckage being visible. Within days, steam, ash and rock fragments were bursting through the surface, and by the middle of the month a new island had begun to take shape. Icelanders named it Surtsey after Surtur, the fire god of Norse mythology, who was foretold to bring fire at the end of the world.

The eruption took place at the southern end of the Vestmannaeyjar archipelago, about 32 kilometres off Iceland's south coast. A vent opened on the sea floor at a depth of roughly 130 metres. As magma reached this vent, it came into contact with cold seawater, which was instantly heated to high temperatures. The rapid expansion of steam shattered the molten rock into fine volcanic ash and threw it high into the air, building a growing pile of loose material around the vent. This explosive phase was dangerous but relatively brief.

For several months Surtsey consisted almost entirely of ash, cinders and pumice, and the sea easily carved into its unprotected slopes. The character of the eruption changed in April 1964, when glowing lava began to pour from the vent and spread across the island's surface. The lava cooled into solid basalt, which formed a resistant shell over the soft deposits. Further explosive phases and lava flows continued until 5 June 1967, by which time extensive lava fields had covered much of the original ash cone.

When activity finally ceased, Surtsey measured about 2.7 square kilometres in area and rose to a height of around 170 metres above sea level. In just over three and a half years, a substantial island had been created from the ocean. Yet its dimensions were never stable. Geologists immediately set up permanent markers and began regular measurements, knowing that the new land would provide an exceptional opportunity to observe geological change from its earliest moments without human interference.

Since 1967, two processes have steadily reduced the island. Waves have pounded the softer southern and western shores, cutting steep cliffs and removing large quantities of ash and cinders. At the same time, the enormous pile of loose volcanic debris has gradually settled and compacted under its own weight. These two forces together have lowered the island and reduced its area, which by the early twenty-first century had fallen to about 1.3 square kilometres. The central lava core, however, has proved far more resistant.

Surtsey's scientific importance was recognised even before the eruption ended. In 1965 the Icelandic government declared the island a nature reserve, and access was restricted to scientists. Ordinary visitors are not allowed to land, because shoes, clothing and equipment can carry seeds, insects or soil particles that would alter the natural course of colonisation. This strict protection has made Surtsey one of the few places on Earth where the arrival of life can be observed without human interference.

Biologists soon began to study primary succession, the process by which living things establish themselves on bare rock. The first colonists were invisible bacteria and fungi, many of which arrived on wind-blown particles. They were followed by lichens and mosses, whose lightweight spores drifted on the air. Seeds of coastal plants reached the island by floating across the sea or by passing through the digestive tracts of birds. The first flowering plants appeared within a few years, but the plant community remained simple and unstable for a long time.

The arrival of seabirds changed the island's ecology. By 1970, species such as fulmars and guillemots had begun to nest on the cliffs, and gulls were often seen resting on the lava fields. Their droppings added nitrogen and phosphorus to the thin volcanic soil, creating pockets where more demanding plants could take root. Some birds also carried plant material for nests, which introduced further seeds. In this way, the birds acted as gardeners, spreading nutrients and species together.

Since those early years, researchers from many countries have continued to monitor the island's plants, insects, birds and marine life. New species are still recorded, although the rate of arrival has slowed. Surtsey has become a living laboratory, where every change can be followed from the beginning. Because no human settlement, farming or deliberate introduction has ever been allowed, the island provides a rare benchmark against which other young volcanic islands and restoration projects can be compared.

In 2008 Surtsey was added to UNESCO's World Heritage List, and its protected status remains unchanged. The island is not only a dramatic example of land creation but also an essential record of how ecosystems begin and develop. Researchers continue to visit in small numbers, and their observations contribute to understanding everything from soil formation to the evolution of new plant and animal communities.

Procrastination is one of the most widespread forms of self-defeating behaviour. Surveys of university students routinely find that a large majority admit to delaying important tasks at least occasionally, and many report that the habit interferes with their work. It is not simply about being lazy or disorganised, although it can look that way from the outside. In my view, procrastination should be understood as an emotional regulation problem: we postpone tasks because we want to escape the unpleasant feelings they provoke, even when we know the delay will make us worse off.

Psychologists define procrastination as the voluntary delay of an intended action despite expecting to be worse off as a result. The key word is 'voluntary': the delay is not caused by a lack of time or ability. This definition is important because it distinguishes procrastination from strategic delay, in which a person deliberately postpones a task because they expect to perform better later. Researchers have used this definition for decades to separate true procrastination from ordinary rescheduling. The core is a failure of self-regulation, not a failure of time management.

When we are faced with a task that seems boring, difficult, frustrating or likely to highlight our shortcomings, the brain registers the task itself as a threat to our immediate mood. We want to feel better now, so we choose a different activity, such as checking messages or making another cup of tea, that offers quick relief. The relief is real, but it is short-lived, and it comes at the cost of longer-term goals. Some brain-imaging research suggests that anticipating a dreaded task can activate areas associated with physical discomfort, which may help explain why avoidance feels so automatic.

This pattern is reinforced by a cognitive bias known as temporal discounting: rewards or punishments that lie in the future appear much smaller than those that are available immediately. The discomfort of starting the task is felt now, while the benefits of completing it lie later, so they seem abstract. In the moment, avoiding the task feels rational, even though a calmer analysis would show that delay increases total stress. This tendency is sometimes called present bias, and it helps explain why people who are perfectly capable of planning for the future still fail to act when a task is unpleasant.

Research on procrastination has grown rapidly, and the findings are consistent. Procrastination is associated with higher levels of stress, anxiety, guilt and depression, and with poorer performance in academic and professional settings. Longitudinal studies that follow students over time suggest that procrastination early in a course predicts lower final grades, even after controlling for ability. The association is strong enough that many universities now offer workshops on overcoming procrastination. However, most studies are correlational, so it is hard to prove that procrastination causes these outcomes. People who are already anxious or perfectionistic may be more prone to delay, and the delay then makes their negative feelings worse.

Standard advice focuses on time management, planning and stronger willpower. Schedules and to-do lists can help in some situations, but by themselves they are often insufficient. If a task triggers a strong emotional reaction, a beautifully organised list will not address the reason the task is being avoided. In fact, some researchers have argued that treating procrastination as a time-management problem can make people feel more ashamed, because they believe they simply lack discipline. This is because the avoidance is maintained by negative emotions rather than by a lack of planning skill.

More promising strategies target the emotional reaction directly. One is to divide the task into such small steps that the first step becomes almost too easy to refuse. Another is to change the environment so that distractions are harder to reach. Perhaps the most interesting approach is self-forgiveness: several studies have found that students who forgive themselves for procrastinating on one task are less likely to delay on a later task, because self-criticism tends to increase the negative emotions that drive further avoidance. Research on implementation intentions shows that specifying in advance exactly when and where a task will be done can also reduce procrastination.

Perfectionism is closely linked to procrastination. People who set unrealistically high standards often fear that their work will never be good enough, so they avoid beginning. They may spend hours preparing, researching or planning without ever moving into action, because starting means accepting that the first attempt will be imperfect. Psychologists distinguish between perfectionistic strivings, which can be motivating, and perfectionistic concerns, which involve excessive worry about mistakes and are more strongly associated with delay. Self-compassion, which involves accepting that mistakes are part of learning, can be particularly helpful for this group.

Digital technology has made procrastination much easier, since an almost infinite supply of distraction is available on a single device. The constant availability of social media and video streaming means that a person can avoid a task without leaving their desk. But it would be wrong to call digital technology the main cause of procrastination. Long before smartphones existed, people found other ways to avoid unpleasant tasks, from sharpening pencils to rearranging books. The tool changes, but the underlying emotional process remains the same.

In the end, the goal should not be to eliminate procrastination completely, because occasional delays are probably unavoidable. The realistic aim is to reduce the harm it causes by understanding the emotions behind it and choosing strategies that address those emotions rather than relying on punishment and shame. Procrastination is not a character flaw; it is a predictable human response to tasks that we find threatening in some way. This perspective allows us to approach the problem with curiosity rather than self-blame.