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At a university in Northern California, a business professor uses an avatar to lecture on a virtual stage. Meanwhile, at a Southern university, students in an artificial intelligence (AI) course discover that one of their nine teaching assistants is a virtual avatar, Jill Watson, IBM’s question-answering computer system. Jill participated in student conversations and responded to all inquiries with 97% accuracy. At a college on the East Coast, students interact with an AI chat agent in a virtual restaurant set in China to learn the Mandarin language. These examples provide a glimpse into future teaching and learning in college.
The rise of artificial intelligence
According to a 2021 report on AI, many institutions find themselves more focused on the present limited use of AI — for tasks such as detecting plagiarism or student cheating — and not so much the future of AI. In my view, universities should broaden their use of AI and conduct experiments to improve upon its usefulness to individual learners. For example, how can colleges use AI to improve student learning of calculus or help students become stronger writers? However, most universities are slow to innovate. Some of the challenges to acquiring AI include lack of technical expertise, financial concerns, insufficient leadership, and biased algorithms.
Professors from the baby-boom generation are retiring, and I expect some of their jobs will not be filled. I believe the rising use of AI will contribute to this trend, with universities relying more on technology than in-person teaching.
The flipped classroom
The flipped classroom provides students with opportunities to learn at their own pace outside the classroom. In college, the flipped classroom involves prerecorded faculty lectures of course content, whether that be on the causes of the Civil War or the origins of white rice. In class, students build on the professor’s prerecorded lecture and work on activities to expand knowledge. The classroom becomes a place for social interaction and understanding course content. A human teaching assistant, avatar or chat agent conducts all in-class activities, tests and group work. No additional professors are needed to teach multiple sections of the same course.
These two trends illustrate a profession that I see as being on the cusp of radical transformation.
(Patricia A. Young. www.theconversation.com, 20.10.2021. Adapted.)
According to the subitem “The rise of artificial intelligence”, one of the difficulties faced by higher education in implementing AI technology is
Provas
At a university in Northern California, a business professor uses an avatar to lecture on a virtual stage. Meanwhile, at a Southern university, students in an artificial intelligence (AI) course discover that one of their nine teaching assistants is a virtual avatar, Jill Watson, IBM’s question-answering computer system. Jill participated in student conversations and responded to all inquiries with 97% accuracy. At a college on the East Coast, students interact with an AI chat agent in a virtual restaurant set in China to learn the Mandarin language. These examples provide a glimpse into future teaching and learning in college.
The rise of artificial intelligence
According to a 2021 report on AI, many institutions find themselves more focused on the present limited use of AI — for tasks such as detecting plagiarism or student cheating — and not so much the future of AI. In my view, universities should broaden their use of AI and conduct experiments to improve upon its usefulness to individual learners. For example, how can colleges use AI to improve student learning of calculus or help students become stronger writers? However, most universities are slow to innovate. Some of the challenges to acquiring AI include lack of technical expertise, financial concerns, insufficient leadership, and biased algorithms.
Professors from the baby-boom generation are retiring, and I expect some of their jobs will not be filled. I believe the rising use of AI will contribute to this trend, with universities relying more on technology than in-person teaching.
The flipped classroom
The flipped classroom provides students with opportunities to learn at their own pace outside the classroom. In college, the flipped classroom involves prerecorded faculty lectures of course content, whether that be on the causes of the Civil War or the origins of white rice. In class, students build on the professor’s prerecorded lecture and work on activities to expand knowledge. The classroom becomes a place for social interaction and understanding course content. A human teaching assistant, avatar or chat agent conducts all in-class activities, tests and group work. No additional professors are needed to teach multiple sections of the same course.
These two trends illustrate a profession that I see as being on the cusp of radical transformation.
(Patricia A. Young. www.theconversation.com, 20.10.2021. Adapted.)
The first paragraph
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Examine a tirinha, publicada na conta do Instagram “The Jenkins Comic”, em 15.03.2021.

Contribui decisivamente para o efeito de humor da tirinha o recurso
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O gráfico indica uma função quadrática f, definida nos números reais.

Sabendo que o vértice do gráfico tem coordenadas (5, 4) e que a parábola intersecta o eixo x nos pontos de coordenadas (3, 0) e (7, 0), o ponto de intersecção do gráfico com o eixo y terá ordenada igual a
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Sabendo que a inversa da matriz
!$ egin{bmatrix} {17 over 3} & -{21 over 2} \ {3 over 11} & {11 over 7} end{bmatrix} !$ é a matriz !$ egin{bmatrix} {756 over 5437} & {4851 over 5437} \ -{126 over 5437} & {2618 over 5437} end{bmatrix} !$
e que (x, y) é a solução do sistema de equações
!$ egin{cases} {17x over 3} - {21y over 2} = 1 \ {3x over 11} + {11y over 7} = 0 end{cases} !$, então, x - y é igual a
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Seja !$ gamma !$ um semicírculo de centro P e diâmetro !$ overline{QR} !$. Neste semicírculo, seja o triângulo isósceles CQR, tal que o círculo "!$ lambda !$", de centro C, seja o maior possível inscrito em !$ gamma !$, como mostra a figura.

Sabendo que o raio de !$ lambda !$ mede 6 cm, a área da região amarela na figura é igual a
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Observe o retângulo ABCD, desenhado no plano cartesiano de eixos ortogonais.

Nesse mesmo plano cartesiano, a reta de equação x + 2y = 9 divide o retângulo ABCD em duas regiões. Nesta condição, a área da menor região determinada por essa reta no retângulo ABCD, em unidades de área do plano, é igual a
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A figura mostra a marcação de cinco números na reta numérica real, sendo dois deles os logaritmos decimais de 0,5 e de 6, indicados por P e Q.

Nesta reta, o número real localizado no ponto médio de !$ overline{PQ} !$ é:
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A figura 1 representa a posição mais alta possível do encosto !$ overline{PR} !$ de uma cama hospitalar. A cama está apoiada na estrutura retangular ABCD que, por sua vez, está apoiada em duas rodas circulares idênticas sobre o chão.

A figura 2 representa a mesma cama, agora em posição horizontal.

Sabendo que PR = 0,8 m, PQ = 1,2 m, BD = 2,2 m, e que o perímetro de cada rodinha é igual a 16!$ pi !$ cm, a altura máxima do ponto R em relação ao chão será igual a:
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A dipirona monoidratada injetável é um medicamento que pode ser administrado via intravenosa ou intramuscular. A administração intravenosa desse medicamento deve ser muito lenta, não excedendo 500 mg por minuto. De acordo com essa orientação, a quantidade máxima de dipirona que um paciente pode receber em 2 minutos e 24 segundos de administração intravenosa é de
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