Electroreception IELTS reading answers are like hidden gems waiting to be discovered. If you’re preparing for the IELTS exam, you’ve probably come across this term and wondered what it entails. Look no further, as we embark on a journey to explore Electroreception IELTS reading answers in depth. This article will serve as your ultimate guide, unraveling the mysteries and providing you with the essential information you need to excel in your IELTS reading test.

Introduction

Are you ready to dive into the fascinating world of Electroreception IELTS reading answers? This article will take you on an educational adventure that covers every aspect of this intriguing topic. By the time you finish reading, you’ll have a solid grasp of Electroreception IELTS reading answers, leaving you well-prepared for your IELTS examination.

Understanding Electroreception

Let’s start at the beginning. What is Electroreception? Electroreception is a sensory system that some aquatic animals possess, allowing them to detect electrical fields in their environment. This unique ability helps them navigate, find prey, and avoid predators. Now, let’s explore how it relates to the IELTS reading test.

The correct electroreception reading answers are given below. So, you can directly refer to this to check your answers.

1. C	5. H	9. Electric current	13. Electric field
2. G	6. D	10. Olfactory organs
3. B	7. Respiratory movements/signals	11. Electric signals
4. A	8. Tail	12. Sinewy muscle

IELTS Reading Passage – Electroreception

ELECTRORECEPTION

In sea water, it is difficult to discern anything other than a murky, blurry green colour. Even the sounds are muddled and hard to make out. How do fish make it look so simple in environments where people would be lost without specialised equipment? The biological phenomena of electroreception, perception, and response to electrical impulses, are largely responsible for this. As water is an effective conductor of electricity, this capacity is exclusive to aquatic and amphibian animals.
There are two forms of electroreception. Although the neural systems of all animals (including humans) produce electric impulses as they are disgorged by the nervous system, certain animals can detect the presence of other species through a process called passive electroreception.
However, certain species can go far further. Active electroreception is animals with organs that can provide distinct electric signals when needed. These are useful not just for finding things in the water, but also as mating signals and territorial displays. Electroreceptors that are actively processing information may identify the distinction between the varied resistances that an electrical current encounters. This can aid in determining whether or not an unidentified animal is a potential meal, a threat, or something to be avoided. The range of active electroreception is around one body length, which is generally just enough for a host to avoid danger or make a killing strike.
The extraordinary use of active electroreception, known as the Jamming Avoidance Response mechanism, has been discovered amongst individuals of some species of weakly electric fish. When two such electric fish encounter one another in the ocean while communicating on the same frequency, each fish will alter the frequency of its discharge to communicate on a different frequency. Doing so protects their electroreception faculties from getting obstructed. Long before citizens’ band radio listeners were required to shout “Get off my frequency!” At least one of the species had developed a form of method for doing so for a quick and peaceful solution to this sort of conflict with incompetent beginners clogging the airwaves.
Electroreception can play a significant part in animal defences. Rays are one example of this. Ray embryos grow in egg casings that are anchored to the seafloor. The embryos maintain continual movement of their tails in order to pump water and allow them to breathe through the egg’s shell.However, if a predatory fish is nearby, the embryo’s electroreceptors cause it to stop moving (and so stop sending electric currents) until the fish has gone on. Because many different kinds of marine animals pass by, the embryo has adapted to respond solely to signals that are typical of the respiratory motions of prospective predators like sharks.
Due to sharks, many people fear swimming in the water. This fear is well-founded in certain ways, as humans lack electroreceptive defence systems. Sharks, on the other hand, hunt with incredible accuracy. Moreover, two thirds of a shark’s brain is fully devoted to its olfactory organs, allowing them to first locate its prey based on its scent. As the shark approaches its victim, it tunes into electrical impulses that enable a perfect strike; this sensitivity is so acute that the shark attacks blindly by closing its eyes for defence.
Typically, human beings are attacked unintentionally. Since sharks cannot tell from electroreception if a food will satisfy their preferences, they typically “try before they buy,” taking one or two bites and then evaluating the results (our sinewy muscle is inferior to that of plumper, softer prey such as seals). Salt in the blood increases the strength of the electric field, creating the ideal conditions for a feeding frenzy, which is extremely likely after a human has begun to bleed. In regions where shark attacks on people are prevalent, scientists are studying techniques to develop electroreceptors that might disorient sharks and deter them from swimming shores.
There is still much we do not understand about how electroreception works. Despite the fact that researchers have seen the effects of electroreception on hunting, defence, and communication systems, the precise cerebral mechanisms that store and interpret this information remain unknown. Additionally, scientists are investigating the significance of electroreception in navigation. Salt water and magnetic fields from the Earth’s core may combine to generate electrical currents that sharks employ for migratory reasons, according to certain theories.

Electroreception Reading Questions

Questions 1-3

Label the diagram.
Write NO MORE THAN TWO WORDS from the passage for each answer.

The shark’s __________ inform the juvenile ray of its existence.
To breathe, the embryo moves its __________.
When a predator is nearby, the embryo ceases transmitting ____________.

ielts-reading-diagram-labeling

Questions 4-7

Complete the following summary.
Write NO MORE THAN THREE words per response from the passage.

A shark is a very efficient predator. Firstly, it uses its 4 __________ to smell its prey. When the shark is close enough to attack, it employs 5 _________ to guide it toward a precise attack. Within the final few feet, the shark rolls its eyes and retracts inside its head. Humans are not popular food sources for most sharks due to their 6 __________ Nevertheless, once a shark has bitten a human, a repeat attack is highly possible as salt from the blood intensifies the intensity of the 7 __________.

Questions 8-13

Which paragraph contains the following information?
Write the correct letter from A–H, in boxes 8–13 on your answer sheet.

8. A description of how some fish can avoid disrupting each other’s electric signals
9. The term for the capacity which enables an animal to pick up but not send out electrical signals
10. How electroreception might help creatures find their way over long distances
11. A possible use for electroreception that will benefit humans
12. Why only creatures that live in or near water have electroreceptive abilities
13. How electroreception can be used to help fish reproduce

Electroreception Reading Answers with Explanations

Here are the Electroreception reading answers and explanations, which will assist you in identifying your errors.

(Note: As you can notice here that the letters which have been written in italic style are answers of the electroreception reading passage and those lines which are written in simple style are the explanation of that particular answer.)

1. Respiratory motions

Explanation: In Paragraph E, it is clearly mentioned that…Because many different kinds of marine animals pass by, the embryo has adapted to respond solely to signals that are typical of the respiratory motions of prospective predators like sharks. Thus, It indicates that respiratory motion informs the juvenile ray of its existence.

2. Tail

Explanation: Paragraph E determines that the embryos maintain continual movement of their tails in order to pump water and allow them to breathe through the egg’s shell. So, it’s clear that in order to breadth embryos move its tail.

3. Electric currents

Explanation: In Paragraph E, However, if a predatory fish is nearby, the embryo’s electroreceptors cause it to stop moving (and so stop sending electric currents) until the fish has gone on. Hence, the above information explains that the embryo pauses to emit electric currents when a predator is nearby.

4. Olfactory organs

Explanation: According to Paragraph F, Moreover, two thirds of a shark’s brain is fully devoted to its olfactory organs, allowing them to first locate its prey based on its scent. Means, in order to target predators, it uses olfactory organs to smell.

5. Electrical impulses

Explanation: In Paragraph F, As the shark approaches its victim, it tunes into electrical impulses that enable a perfect strike; this sensitivity is so acute that the shark attacks blindly by closing its eyes for defence. So, When the shark is close enough to attack, it guides its attack using electrical impulses.

6. Sinewy muscle

Explanation: Paragraph G indicates that since sharks cannot tell from electroreception if a food will satisfy their preferences, they typically “try before they buy,” taking one or two bites and then evaluating the results (our sinewy muscle is inferior to that of plumper, softer prey such as seals). Thus, it’s clear that due to our sinewy muscles, humans are not a preferred food source for the vast majority of sharks.

7. Electric field

Explanation: According to Paragraph G, salt in the blood increases the strength of the electric field, creating the ideal conditions for a feeding frenzy, which is extremely likely after a human has begun to bleed. Means, However, once a shark has bitten a person, it is quite likely that it will bite again, as the salt in the blood amplifies the electric field.

8. D

Explanation: In that paragraph, the writer mentioned that When two electric fish meet in the ocean and are talking on the same frequency, each fish will change the frequency of its discharge to talk on a different frequency. This keeps their ability to pick up radio waves from being blocked.

9. B

Explanation: In paragraph B, the author indicates that there are two ways to get electricity and there are some animals who can sense the presence of other species through a process called passive electroreception.

10. H

Explanation: In that paragraph, according to certain theory and research, Scientists are also looking into what role electroreception plays in navigation. Some theories say that when salt water and magnetic fields from the Earth’s core mix, they create electrical currents that sharks use to migrate.

11. G

Explanation: In paragraph G, the writer mentioned the information about how shark attacks on humans and researchers are looking into ways to make electroreceptors that might confuse sharks and keep them from swimming near coastlines in places where shark attacks are common.

12. A

Explanation: In that paragraph, the biological phenomena of electroreception, perception, and response to electrical impulses, are largely responsible for this. As water is an effective conductor of electricity, this capacity is exclusive to aquatic and amphibian animals. It’s clearly mentioned how it works when it comes to creatures and not works for humans.

13. C

Explanation: In paragraph C, the writer mentioned how active electroreception helps animals by generating special electric signals. Moreover, it also helps to determine if another creature is prey, predator or something that is good to be left alone.

Frequently Asked Questions (FAQs)

Now that you have a solid understanding of Electroreception IELTS reading answers, let’s address some common questions that IELTS test-takers often have.

How Can I Improve My Electroreception IELTS Reading Skills?

Improving your Electroreception IELTS reading skills requires practice. Start by reading scientific articles related to this topic and taking IELTS practice tests to refine your abilities.

Are Electroreception IELTS Reading Answers Always Obvious in the Text?

Not always. Sometimes, Electroreception IELTS reading answers are hidden within the text and require careful reading and inference skills to find.

Is Electroreception a Frequent Topic in IELTS Reading?

While it’s not the most common topic, Electroreception does appear in some IELTS reading passages. It’s essential to be prepared for any subject.

How Can I Manage My Time Effectively During the IELTS Reading Test?

Time management is crucial. Allocate a specific amount of time for each passage, and don’t get stuck on a single question. Move on and come back if needed.

What Are Some Useful Resources for IELTS Reading Preparation?

You can find valuable resources online, including IELTS prep books, practice tests, and study guides. Utilize these to enhance your skills.

Can I Use Online Tools to Practice Electroreception IELTS Reading?

Absolutely! There are various online tools and platforms that offer IELTS practice questions and exercises. Take advantage of them to hone your skills.

Click here to join our social media platforms for new updates

Conclusion

In conclusion, mastering Electroreception IELTS reading answers is a valuable skill for any IELTS test-taker. With practice, an understanding of context clues, and a focus on keywords, you can excel in the reading section. Remember, Electroreception is just one of the many exciting topics you may encounter in the IELTS exam. Stay curious, keep practicing, and you’ll be well-prepared for success.

Related Articles:

Post Views: 95