Questões de Língua Inglesa do ano 2025

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Listagem de Questões de Língua Inglesa do ano 2025

#Questão 1089625 - Língua Inglesa, Interpretação de texto | Reading comprehension, QUADRIX, 2025, CFO,

        Artificial intelligence is revolutionizing diagnostics in dentistry. With the power of AI algorithms, dental specialists can analyze complex data sets, such as X‑rays and patient records, to identify patterns and detect abnormalities. This technology enables early detection of oral diseases, leading to more effective and timely treatments. AI‑driven diagnostic tools not only enhance the accuracy of diagnoses but also streamline the decision‑making process for dental professionals.

Internet:<www.myrobstowndentistry.com>  (adapted).

Based on the text and general knowledge, judge the following item.


The phrase “leading to more effective and timely treatments” suggests that the use of AI contributes to better treatment outcomes, emphasizing its positive impact. 

#Questão 1089626 - Língua Inglesa, Interpretação de texto | Reading comprehension, QUADRIX, 2025, CFO,

        Artificial intelligence is revolutionizing diagnostics in dentistry. With the power of AI algorithms, dental specialists can analyze complex data sets, such as X‑rays and patient records, to identify patterns and detect abnormalities. This technology enables early detection of oral diseases, leading to more effective and timely treatments. AI‑driven diagnostic tools not only enhance the accuracy of diagnoses but also streamline the decision‑making process for dental professionals.

Internet:<www.myrobstowndentistry.com>  (adapted).

Based on the text and general knowledge, judge the following item.


The text states that artificial intelligence is transforming diagnostics in dentistry by allowing specialists to analyze complex data sets.

#Questão 1089796 - Língua Inglesa, Interpretação de texto | Reading comprehension, CESPE / CEBRASPE, 2025, TRF - 6ª REGIÃO, Técnico Judiciário – Área: Apoio Especializado – Especialidade: Desenvolvimento de Sistemas de Informação

        It’s like a 21st century version of Frankenstein’s monster.

     Switzerland-based startup FinalSpark claims to have built a unique computer processor made from 16 mini brains developed out of human brain tissue — and they are positioning this “living computer” as an alternative to silicon-based computing. And now, other researchers can remotely access the startup’s biocomputer, the Neuroplatform, to conduct studies on, let’s say, artificial intelligence, which typically requires enormous resources.

    “One of the biggest advantages of biological computing is that neurons compute information with much less energy than digital computers,” a scientist and strategic advisor wrote in a company blog post. It is estimated that living neurons can use over 1 million times less energy than the current digital processors we use. The startup takes brain organoids, small samples of human brain tissue derived from neural stem cells, and places them in a special environment that keeps these organoids alive. They then hook up these mini brains to specialized electrodes to perform computer processing and digital analog conversions to transform neural activity into digital information.

    The concept of living computers has been around for quite some time now. Last year, for instance, scientists hooked up neurons to electrical circuits, resulting in a device that could perform voice recognition. These unusual machines have some noteworthy advantages over their silicon-based counterparts, including a significantly smaller carbon footprint. “This is one of the reasons why using living neurons for computations is such a compelling opportunity. Apart from possible improvements in AI model generalization, we could also reduce greenhouse emissions without sacrificing technological progress,” she said.

    FinalSpark hopes other institutions will tap its Neuroplatform in order to advance biocomputer research, while positioning this tool as the next step in AI computing. As AI companies clamor for resources for data centers, with concerns growing over carbon emissions and water, it’s a novel approach that may just pay off in the long run.


Internet:<futurism.com/neoscope>  (adapted).  

Based on the preceding text, judge the item that follow.


Biocomputers are more efficient than standard computers because they take less time than the latter to process the same information.

#Questão 1089797 - Língua Inglesa, Interpretação de texto | Reading comprehension, CESPE / CEBRASPE, 2025, TRF - 6ª REGIÃO, Técnico Judiciário – Área: Apoio Especializado – Especialidade: Desenvolvimento de Sistemas de Informação

        It’s like a 21st century version of Frankenstein’s monster.

     Switzerland-based startup FinalSpark claims to have built a unique computer processor made from 16 mini brains developed out of human brain tissue — and they are positioning this “living computer” as an alternative to silicon-based computing. And now, other researchers can remotely access the startup’s biocomputer, the Neuroplatform, to conduct studies on, let’s say, artificial intelligence, which typically requires enormous resources.

    “One of the biggest advantages of biological computing is that neurons compute information with much less energy than digital computers,” a scientist and strategic advisor wrote in a company blog post. It is estimated that living neurons can use over 1 million times less energy than the current digital processors we use. The startup takes brain organoids, small samples of human brain tissue derived from neural stem cells, and places them in a special environment that keeps these organoids alive. They then hook up these mini brains to specialized electrodes to perform computer processing and digital analog conversions to transform neural activity into digital information.

    The concept of living computers has been around for quite some time now. Last year, for instance, scientists hooked up neurons to electrical circuits, resulting in a device that could perform voice recognition. These unusual machines have some noteworthy advantages over their silicon-based counterparts, including a significantly smaller carbon footprint. “This is one of the reasons why using living neurons for computations is such a compelling opportunity. Apart from possible improvements in AI model generalization, we could also reduce greenhouse emissions without sacrificing technological progress,” she said.

    FinalSpark hopes other institutions will tap its Neuroplatform in order to advance biocomputer research, while positioning this tool as the next step in AI computing. As AI companies clamor for resources for data centers, with concerns growing over carbon emissions and water, it’s a novel approach that may just pay off in the long run.


Internet:<futurism.com/neoscope>  (adapted).  

Based on the preceding text, judge the item that follow.


FinalSpark has designed a computer processor based on human brain tissue rather than silicon. 

#Questão 1089798 - Língua Inglesa, Interpretação de texto | Reading comprehension, CESPE / CEBRASPE, 2025, TRF - 6ª REGIÃO, Técnico Judiciário – Área: Apoio Especializado – Especialidade: Desenvolvimento de Sistemas de Informação

        It’s like a 21st century version of Frankenstein’s monster.

     Switzerland-based startup FinalSpark claims to have built a unique computer processor made from 16 mini brains developed out of human brain tissue — and they are positioning this “living computer” as an alternative to silicon-based computing. And now, other researchers can remotely access the startup’s biocomputer, the Neuroplatform, to conduct studies on, let’s say, artificial intelligence, which typically requires enormous resources.

    “One of the biggest advantages of biological computing is that neurons compute information with much less energy than digital computers,” a scientist and strategic advisor wrote in a company blog post. It is estimated that living neurons can use over 1 million times less energy than the current digital processors we use. The startup takes brain organoids, small samples of human brain tissue derived from neural stem cells, and places them in a special environment that keeps these organoids alive. They then hook up these mini brains to specialized electrodes to perform computer processing and digital analog conversions to transform neural activity into digital information.

    The concept of living computers has been around for quite some time now. Last year, for instance, scientists hooked up neurons to electrical circuits, resulting in a device that could perform voice recognition. These unusual machines have some noteworthy advantages over their silicon-based counterparts, including a significantly smaller carbon footprint. “This is one of the reasons why using living neurons for computations is such a compelling opportunity. Apart from possible improvements in AI model generalization, we could also reduce greenhouse emissions without sacrificing technological progress,” she said.

    FinalSpark hopes other institutions will tap its Neuroplatform in order to advance biocomputer research, while positioning this tool as the next step in AI computing. As AI companies clamor for resources for data centers, with concerns growing over carbon emissions and water, it’s a novel approach that may just pay off in the long run.


Internet:<futurism.com/neoscope>  (adapted).  

Based on the preceding text, judge the item that follow.


One of the advantages related to using living neurons in computing is that the carbon footprint is much smaller than the one caused by silicon-based computer processors.

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